Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
1 Aagaard J.E., Krutovskii 1997 RAPDs and allozymes exhibit similar Heredity 81: allozymes, DNA Thirty-six nuclear-encoded RAPD loci and
k.V., Straus S.H. levels of diversity and differentiation 69-79 markers, dominance 20 allozyme loci were studied to compare
among populations and races of Dougla- simulation, Douglas-fir, levels of diversity and differentiation
2 Aagaard J.E., Krutovskii 1998 fir
RAPD markers of mitochondrial origin Molecular RAPD diversity, RAPD,
geneticDNA markers, among populations and races of the
We developed a method of screening
k.V., Straus S.H. exibit lower population diversity and Ecology 7 (7): population RAPD markers for the presence of
higher differentiation than RAPDs of 801-812 differeniation, Douglas organelle DNA products using enriched
3 A'Hara, S.W.; Cottrell, Characterization Douglas of
2007 nucleus origin in of a suitefir 40 EST- Silvae fir, forest trees
EST, Sitka spruce, forest The paper describes 40 then used these
organelle DNA probes, novel, data-mined,
J.E. derived microsatellite markers for use in Genetica 56 (3- trees polymorphic microsatellite loci for use in
Sitka Spruce (Picea sitchensis (Bong.) 4): 138-141 a QTL association study in Sitka spruce.
4 Akerman, S., 1996 Carr)
Segregation of AFLP markers in Betula Forest AFLP, DNA markers, Publicly available EST sequences of Picea
-
Tammisola, J., Regina, pendula (Roth). Genetics 3 (2): PCR, Betula pendula ,
M., Kauppinen, V. and 117-123. DNA fingerprinting,
Akerman, S.
5 Lapinjoki, S., 1995 RAPD markers in Parentage Can. J. For. forest trees
Arbitrary primers, DNA, The general applicability of RAPDs
Tammisola, J., confirmation of a valuable breeding Res. 25 (7): PCR, molymorphism, , (random amplified polymorphic DNAs) as
Lapinjoki S.P., progeny of European white birch 1070-1076 forest trees genetic molecular markers for Betula
6 Soderlund H., Payton
Alba R., Fei Z., 2004 ESTs, cDNA microarrays, and gene The Plant expressed sequence tags, pendula Roth was evaluated. On average
Gene expression profiling holds
P., Liu Y., Moore S.L., expression profiling: tools for dissecting Journal 39, expression profiling, tremendous promise for dissecting the
Debbie P., Cohn J., plant physiology and development 697–714 transcriptome, digital regulatory mechanisms and transcriptional
Areškevičienė Gordon 2005 Miško medžių genetiniai tyrimai
7 D‘Ascenzo M.,R., Lietuvos expression analysis,
RAPD, genetic diversity, networks that underlie biological
Atsitiktinai pagausintos polimorfinės DNR
Žvingila D., Kuusienė atsitiktinai pagausintos polimorfinės biologinė genetic identity, forest metodas (APPD) plačiai taikomas augalų
S. DNR (APPD) metodu įvairovė: trees genetinės įvairovės tyrimams. Lietuvos
8 Areškevičienė, R., 2005 The Estimation of Genetic Diversity būklė, Forestry RAPD, Picea abies ,
Baltic miškų instituto Molekulinės genetikos ir
The genetic diversity and genetic
Žvingila, D., within and between Lithuanian 11 (2): 2-8 population, genetic differentiation of eight Lithuanian
Gabrilavičius, R. and Populations of Norway Spruce (Picea diversity, forest trees
QTL, wood quality, populations of Norway spruce (Picea abies
9 Kuusienė, S.
Arcade A., Faivre- 2002 abies (L.) Karst.) by using RAPD.
Localisation of genomic regions Ann. For. Sci. microdensitometry, The use of were studied using random
(L.) Karst.)wood quality components in
Rampant P., Paques controlling microdensitometric 59: 607-615 wood density, Larix, forest trees selection is hampered by long
L.E. and Prat D. parameters of wood characteristics in forest trees delays before phenotypic evaluation.
10 Arvai J.L. 2007 hybrid larches risk communication:
Rethinking of Tree Genetics Risk communication, Marker-assisted selection opens new
Risk communication involves three
lessons from the decision sciences & Genomes 3: Decision making, Risk primary elements: process, content and
173–185 management, GMO intent. Much has been written about the
first two. Much is known, for example,
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
11 Bacilierri R. , Ducousso 1995 Genetic, morphological, ecological and Silvae Quercus morphology, The sessile and pedunculate oaks are the
A. and Kremer A. phenological differentiation between phenology, gradient
Genetica 44, most common tree species in Europe. The
Quercus petraea (Matt.) Liebl. and 1: 1-10. ecology, allozymes, 2 taxons are closely related, and, in spite
12 Bacilieri, R, Ducousso, Comparison of L. in a mixed characters
1996 Quercus robur morphologicalstand of Ann Sci Fordifferentiation, forest
morphology; RAPD; of their ecological differences, they form
Interspecific hybridization is common in
A, Kremer, A and molecular markers for the analysis of hybridization; Quercus,
53 (1): 79-91 many plant groups, but the morphology of
hybridization in sessile and pedunculate forest trees hybrids has rarely been studied on an
13 Bacilieri, R., Roussel, 1993 oak
Hybridization and mating system in a Ann Sci For Allozymes, experimental basis. The sessile and the
Patterns of hybridization and of the mating
G. Ducousso, A. mixed stand of sessile and pedunculate 50, Suppl hybridizatlon, mating system of Quercus petraea and Quercus
oak. 1:122-127. system, pollen pool, robur have been inferred from
14 Bajaj,Y.P.S. 1986 Chapter I. Biotechnology of Tree Biotechnology Quercus robur , Quercus
forest trees examination of allozyme variation in 2
-
Improvement for Rapid Propagation and in Agriculture
Biomass Energy Production. and
15 Bastien D., Favre J.M., 2003 haracterization of a mosaic minisatellite Forestry.Trees minisatellite; VNTR;
Theor Appl A mosaic minisatellite region has been
Collignon A.M., locus in the mitochondrial DNA of Genet 107 (3): mtDNA; heteroplasmy; identified in the mitochondrial genome of
Sperisen C., Jeandroz S. Norway spruce [Picea abies (L.) Karst.] 574-580 Picea abies, forest trees Norway spruce (Picea abies). The array
16 Beavis, W.D. and Keim, 1996 Identification of quantitative trat loci that
Edited by forest trees was composed of three tandem repeats
-
P. are affected by environment. Kang, M.S.,
Gauch, H. G.,
17 Bedon, F., Grima- 2007 Conifer R2R3-MYB transcription Jr. Genotype- forest trees
BMC Plant BACKGROUND:Several members of the
Pettenati, J. and factors: sequence analyses and gene Biology 7(1): R2R3-MYB family of transcription factors
MacKay, J. expression in wood-forming tissues of 17 act as regulators of lignin and
18 Belahbib, N., Pemonge, 2001 white spruce (Picea glauca)
Frequent cytoplasmic exchanges Molecular cpDNA, geographical Chloroplast (cp) metabolism during wood
phenylpropanoidand mitochondrial (mt)
M.H., Ouassou, A., between oak species that are not closely Ecology 10 structure, hybridization, DNA variation were studied in 97
Sbay, H., Kremer, A., related: Quercus suber and Q-ilex in (8): 2003- introgression, mtDNA, populations of cork oak (Quercus suber) in
19 Petit, R.j. R. and
Bernatzky, 1992 Marocco.
Marker-aided selection in a backcross 2012.J. For.
Can. PCR-RELP, forest trees
MAS, DNA Morocco; in 31 of these populations, holm
Marker-assisted selection in backcross
Mulcahy, D.L. breeding program for resistance to Res. 22: 1033- fingerprinting, Castanea, breeding is discussed in general and with
chestnut blight in the American chestnut. 1037. forest trees specific reference to obtaining resistance
20 Binelli, G., Bucci, G. 1994 A genetic linkage map of Picea abies Theor Appl Picea abies , RAPD, to chestnut blight in American chestnut
Norway spruce (Picea abies Karst.) is a
Karst., based on RAPD markers, as a Genet 88: 283- Population genetics, most important species among European
tool in population genetics. 288. linkage map, forest trees forest trees for both economical and
ecological reasons. However, this species
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
21 Bordacs S., Popescu F., 2002 Chloroplast DNA variation of white oaks Forest Ecol Quercus spp.; A total of 1113 oak trees from 222
Slade D., Csaikl U.M., in northern Balkans and in the Manag 156: PCR–RFLP; Postglacial populations originating from eight
Lesur I., Borovics C, Carpathian Basin 197–209 recolonisation; Refugia; countries (Austria, Bosnia-Herzegovina,
22 Kezdy P., Konig A.O.,
Bouille, M. and 2005 Trans-species shared polymorphisms at Am J Bot Species distribution,
allele coalescence, Croatia, Hungary,nuclear Pile loci.
For each of three Romania, Slovakia,
Bousquet, J. orthologous nuclear gene loci among 92(1): 63-73. expressed sequence tag intraspecific- as well as trans-specific
distant species in the conifer Picea polymorphisms, EST, shared polymorphisms were detected in
23 Bousquet, J., Isabel, N., 2007 (Pinaceae):-Implications for the long-
Chapter 3 Spruce. In Genome historical demography,
forest trees UNA among three distantly related species
-
Pelgas, B., Cottrell, J., Mapping and
Rungis, D. and Ritland, Molecular
24 K.
Bradshaw, H.D., Ir., and 1992 Marker-aided selection and propagation Breeding in
Can. J. For. Genetic maps, MAS, Genetic maps with a high density of
Foster, G.S. systems in trees: advantages of cloning Res. 22: 1046- markers, forest trees markers have been used to locate discrete
for studying quantative inheritance. 1051 Mendelian components of quantitatively
25 Bradshaw H.D. Jr. and 1995 Molecular Genetics of Growth and Genetics 139: Molecular Genetics, We have traits in quantitative trait loci
inherited mapped a few crop plants. In
Stettled R.F. Development in Populus. IV. Mapping 963-973 growth, development, (QTLs) for commercially important traits
QTLs With Large Effects on Growth, Populus, mapping, QTL, (stem growth and form) and an adaptive
26 Bradshaw, H.D., and 1993 Form, and Phenology Traits inand
Molecular genetics of growth a Forest Theor Appl form, phenology, forest trait (spring leaf flushi)n a Populus F2
RFLP, polyploid, While constructing a genetic linkage map
Stettler, R.F. development in Populus I. Triploidy in Genet: nondisjunction, of a hybrid poplar genome (Populus
hybrid poplars. interspecific hybrid, trichocarpa x P. deltoides), we identified
27 Bradshaw, H.D., and 1994 Molecular-genetics of growth and Theor Appl cottonwood, forest trees several restriction fragment length
Cottonwood, inbreeding Distortion of expected Mendelian
Stettler, R.F. development in Populus 2: Segregation Genet 89 (5): depression, lethal segregation ratios, commonly observed in
distortion due to genetic load 551-558 equivalent, forest trees many plant taxa, has been detected in an
28 Bradshaw, H.D., Villar, 1994 Molecular genetics of growth and Theor Appl Cottonwood, experimental three-generation inbred
We have evaluated three DNA-based
M., Watson, B.D., Otto, development in Populus . III. A genetic Genet 89: 167- tacamahaca, aigeiros marker types for linkage map construction
K.G., Stewart,S., linkage map of a hybrid poplar 178. salix, genome, forest in Populus: RFLPs detected by Southern
29 Steeettler, R.F. and
Bradshaw, H.D., 1995 Molecular-genetics STS, and RAPD
composed of RFLP,of growth and Theor Appl trees
Cottonwood, MAS, blot have mapped quantitative traitby a
We hybridization, STSs detected loci
Stettler, R.F. development in Populus 4: Mapping Genet 139 (2): QTL, poplars, hybrids, (QTLs) for commercially important traits
QTLs with large effects on growth, form, 963-973 forest trees (stem growth and form) and an adaptive
30 Bradshaw H.D., 2000 and phenology traits in a forest tree
Emerging model systems in plant J Plant Growth forest genetics; tree Forest trees leaf tremendous economic
trait (spring haveflush) in a Populus F-2
Ceulemans R., Davis J., biology: Poplar (Populus ) as a model Regul 19 (3): physiology; genomics, and ecological value, as well as unique
Stettler R. forest tree 306-313 QTL, forest trees biological properties of basic scientific
interest. The inherent difficulties of
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
31 Brinker M., van Zyl L., 2004 Microarray Analyses of Gene Expression Plant Microarray, gene In order to investigate the gene expression
Liu W., Craig D., during Adventitious Root Development Physiology expression, root pattern during adventitious root
Sederoff R.R. in Pinus contorta 135: development, Pinus development, RNA of Pinus contorta
32 Brondani R.P.V., 2006 A microsatellite-based consensus linkage 1526–1539,
BMC Plant contorta, forest trees
SSR, microsatelites, hypocotyls, pulse-treated with the auxin
Background: Eucalypts are the most
Williams E.R., Brondani map for species of Eucalyptus and a Biology 6: 20 DNA markers, linkage widely planted hardwood trees in the
C., Grattapaglia D. novel set of 230 microsatellite markers map, Eucalyptus, forest world occupying globally more than 18
33 Brondani R.P.V., 2002 for the genus
owards a genus-wide reference linkage Mol Genet trees
microsatellite; simple million hectares as an important source of
A novel set of 50 highly polymorphic
Brondani C., map for Eucalyptus based exclusively on Genomics 267 sequence repeats (SSR); microsatellite markers were developed and
Grattapaglia D. highly informative microsatellite (3): 338-347 Eucalyptus; linkage map, mapped on existing RAPD framework
34 T
Brown G.R., Kadel III 2001 markers Reference Loci in Loblolly
Anchored Genetics 159: forest trees
EST polymorphism, maps of Eucalyptus grandis and E.
Anchored reference loci provide a
E.E., Bassoni D.L., Pine (Pinus taeda L.) for Integrating 799–809 Pinus taeda, genomics, framework for comparative mapping.
Kiehne K.L, Temesgen Pine Genomics forest trees They are landmarks to denote conserved
Brown Buijtenen J.P.,
35 B., van G.R., Bassoni 2003 Identification of Quantitative Trait Loci Genetics 164: QTL, wood property, chromosomal segments, allowing the map
A long-term series of experiments to
D.L., Gill G.P., Fontana Influencing Wood Property Traits in 1537–1546 Pinus taeda, forest trees QTL influencing wood property traits in
J.R., Wheeler N.C., Loblolly Pine (Pinus taeda L.). III. QTL loblolly pine has been completed. These
Brunner R.A., Li J.,
36 Megraw A.M., Davis 2007 Verification and Candidate Gene
Genetic containment of forest plantations Tree Genetics Populus, Pinus, Dispersal of were designed to identify and
experiments pollen, seeds, or vegetative
DiFazio S.P., & Genomes 3 Eucalyptus, Sterility, propagules from intensively bred, exotic,
Shevchenko O., (2): 75-100 Confinement, Ablation, or recombinant DNA modified forest
37 Montgomery B.E.,
Brunner A.M, Busov 2004 Poplar genome sequence: functional Trends in Excision, Genetic
Poplar, genome In addition may cause detrimental
plantations to their value for wood or
V.B., Strauss S.H. genomics in an ecologically dominant Plant Science sequence, genomics, products, members of the genus Populus
plant species Vol.9 No.1 forest trees (poplars) provide a range of ecological
38 Buckler E.S., 2002 Plant molecular diversity and Current Molecular diversity, services,of nucleotide diversity are
Surveys including carbon sequestration,
Thornsberry J.M. applications to genomics Opinion in forest trees beginning to show how genomes have
Plant Biology been shaped by evolution. Nucleotide
39 Bucci, G, Binelli, G, 1995 Identification of a new set of molecular 5:107–111
Population Molecular markers, diversity is also being used to discover the
-
Menozzi, P markers in Norway spruce as revealed by genetics and Spruce, forest trees
random amplification techniques genetic
40 K Burg, M Zechmeister- 1993 Oak chloroplast-DNA polymorphisms conservation
Ann. For. Sci. oak, chloroplast, Petunia hybrida chloroplast (cp) DNA
Machhart, J Glössl and J detected by restriction fragment length 50: 66-69 restriction fragment probes were used to find restriction
Schmidt polymorphism (RFLP) length polymorphism, fragment length polymorphisms (RFLPs)
RFLP, forest trees in the cp DNA of the oak species Quercus
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
41 Byrne, M., Murrell, 1997 Identification and mode of action of Theor Appl Eucalypts, height, leaf Regions of the genome influencing height
J.C., Owen, J. V., quantitative trait loci affecting seedling Genet 94: 674- area, genetic mapping, and leaf area in seedlings of a three-
Kriedemann, P., height and leaf area in Eucalyptus 681. pleiotropy, forest trees generation outbred pedigree of Eucalyptus
42 Williams E.R., Moran,
Byrne, M, Murrell, JC, 1997 nitens . of quantitative trait loci
Mapping Theor Appl Eucalypts, QTL, Frost nitens have the genome influencingQTLs
Regions of been identified. Three frost
Owen, JV, et al. influencing frost tolerance in Eucalyptus Genet 95 (5- tolerance, Genetic tolerance in an outbred family of
nitens 6): 975-979 mapping, forest trees Eucalyptus nitens have been identified.
43 Byrne M., Murrell J.C., 1995 An integrated genetic linkage map for Theor Appl Genetic map, linkage, An integrated genetic the same linkage
Two QTLs present on linkage map for E.
Allen B., Moran G.F. Eucalyptus using RFLP, RAPD and Genet 91 (6- Eucalypts, RFLP; nitens was constructed in an outbred three-
Isozyme markers 7): 869-875 RAPD, forest trees generation pedigree. Analysis of 210
44 Byrne M., Moran G.F., 1994 Detection and inheritance of RFLPs in NOV Appl
Theor RFLP, Eucalypts, RFLP, 125 RAPD and 4 isozyme loci
The level of polymorphism using genomic
Murrell J.C., Tibbits Eucalyptus nitens Genet 89 (4): inheritance, forest trees and cDNA probes with a number of
W.N. 397-402 OCT restriction enzymes and the inheritance of
45 Campbell M.M., 2003 ForestryÕs fertile crescent: the Plant domestication, genetic the RFLP loci was investigated in E.
Relative to crop plants, the domestication
Brunner A.M., Jones application of biotechnology to forest Biotechnology engineering, forestry, of forest trees is still in its infancy. For
H.M., Strauss S.H. trees Journal 1: forest trees, wood example, the domestication of many crop
46 Cato S.A., · Gardner 2001 A rapid PCR-based method for 141Ð154
Theor Appl Expressed sequence tag, plants wassemi-automatable procedure ago
A simple, initiated some 10 000 years
R.C.,· Kent J.,· genetically mapping ESTs Genet Polymerase chain was developed for converting expressed
Richardson T.E. 102:296–306 reaction, Fragment sequence tags (ESTs) into mappable
47 Cavers S, Degen B, 2005? Optimal sampling strategy for estimation Heredity 95? length polymorphism,
spatial genetic structure; genetic markers. The polymerase chain
Fine-scale spatial genetic structure (SGS)
Caron H, Lemes MR, of spatial genetic structure in tree (4): 281-289 trees; sampling; spatial in natural tree populations is largely a
Margis R, Salgueiro F, populations autocorrelation; result of restricted pollen and seed
48 Lowe AJM.T., Gusmao, 1996
Cervera, Indentification of AFLP molecular Theor Appl dominant; codominant,
Mer, AFLP markers, We have Understanding markers tightly
dispersal.identified AFLPthe link between
J. Steenackers, M., markers for resistance against Genet 93: 733- bulked segregant linked to the locus conferring resistance to
Peleman, J. Storme, V., Melampsora larici-populina in Populus. 737. analysis, Melampsora the leaf rust Melampsora a larici-populina
49 Vanden Brooeck, A.,
Cervera, MT, Gusmao, 1996 The use of bulked segregant analysis to For Sci. 49: larici-populina , Populus,
AFLP markers, in Populus. The study was carried out
We have identified three AFLP markers
J, Steenackers, M, et al. identify AFLP(TM) molecular markers 205-210 Melamsora, resistance, tightly linked to the locus conferring
T closely linked to Melampsora larici- populus, forest trees resistance to the leaf rust Melampsora
50 Cervera, MT, Gusmao, 1996 populina resistance in Populus
Application of AFLP(TM)-based Plant Growth AFLP, fingerprint, larici-populina in Populus by Bulked eased
Molecular marker technologies have
J, Steenackers M., Van molecular markers to breeding of Regul 20 (1): genome mapping, and potentiated genetic analysis of plants
Gysel A., Van Montagu Populus spp 47-52 molecular markers, and have become an extremely useful tool
M. and Boerjan W. poplar, QTL, forest trees in forest tree breeding. The information
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
51 Cervera M.T., Storme 2001 Dense Genetic Linkage Maps of Three Genetics 158: AFLP, SSR, Populus Populus deltoides, P. nigra, and P.
V., Ivens B., Gusma J., Populus Species (Populus deltoides, P. 787–809 deltoides, Populus nigra, trichocarpa are the most important species
Liu B.H., Hostyn V., nigra and P. trichocarpa) Based on AFLP Populus trichocarpa, for poplar breeding programs worldwide.
52 Van Slycken J., Van
Cervera M.T., 2000 and Microsatellite Markers tree species
Improved AFLP analysis of Can. J. For. forest trees peach,
AFLP, trees, Amplified fragment has become a model
In addition, Populus length polymorphism
Remington D., Frigerio Res. 30: 1608- eucalypt, oak, poplar, (AFLP) is a high-throughput, molecular-
J.M., Storme V., Ivens 1615 lobloly pine, forest trees marker technique that is used increasingly
53 B., Boerjan W., Plomion 2000 Molecular markers and genome mapping
Cervera M.T., Plomion Molecular genome mapping, woody in a variety of genetic analyses. Here, the
-
C., Malpica C. in woody plants Biology of plants, forest trees
Woody Plants,
54 Chaffey N., Cholewa E., 2002 Secondary xylem development in 1:375-394
Physiologia molecular, wood Our understanding of the molecular
Regan S. and Sundberg Arabidopsis: a model for wood Plantarum formation, forest trees controls regulating the identity of the
B. formation 114: 594–600. vascular cambium and the development of
55 Chagné, D., Lalanne, C., 2002 A high density genetic map of maritime Ann. For. Sci. Pinus pinaster, genetic secondary xylem and phloem have not yet
We constructed a high-density linkage
Madur, D., Kumar, S., pine based on AFLPs. 59 (5-6): linkage map, AFLP, map of maritime pine (Pinus pinaster Ait.)
Frigério, J.-M., Krier, 627–636. double pseudo-testcross, based on AFLP (Amplified Fragment
56 C., Decroocq, S.,
Chalupa V. 1993 Vegetative propagation of oak (Quercus Ann. For. Sci. physical size, forest trees
vegetative propagation, Length Polymorphism) markers using a
The potential of cuttings of Quercus robur
robur and Q petraea) by cutting and 50: 295-307 Quercus, cutting, tissue and Q petraea to form adventitious roots
tissue culture culture, somatic decreased rapidly with increasing plant
57 Chaparro J.X., Werner 1994 Targeted mapping and linkage analysis Theor Appl embryogenesis,segregant,
RAPD, bulked forest Nine different F2 families older plants
age. The rooting ability of of peach
D.J., O'Malley D., of morphological isozyme, and RAPD Genet 87: 805- genomic mapping, peach, [Prunus persica (L.) Batsch] were
Sederoff R.R. markers in peach. 815. Prunus persica , forest analyzed for linkage relationships between
58 Chua N.H. and 2000 Plant biotecnology the ins and outs of a Current trees trees
forest 14 morphological and two isozyme loci.
-
Sundaresan V. vew green revolution. opinion in
biotechnology,
59 Collignon A-M., Van de 2002 Geographical variation in random Vol.11:117- Picea abies, RPD, DNA,
Can. J. For. Quantitative traits and random amplified
Sype H., Favre J-M. amplified polymorphic DNA and Res. 32: quantitative traits, polymorphic DNA variations were
quantitative traits in Norway spruce 266–282 geographical variation, investigated on the whole natural range of
60 Collignon A.M., Favre 2000 Contribution to the postglacial history at Annals of forest abies, Norway
Picea trees Norway spruce (Picea abies (L.) Karst.).
RAPD analysis was used (1) to assess the
J.M. the western margin of Picea abies' Botany 85 (6): spruce, phylogeography, diversity of indigenous Picea abies within
natural area using RAPD markers. 713-722 phenotypic diversity, the French massifs (Alps, Jura and
Annals of Botany 85 (6): 713-722 correspondence analysis, Vosges) in comparison with the Hercyno-
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
61 Comps B., Gömöry D., 2001 Diverging trends between heterozygosity Genetics 157: DNA, forest trees Variation at 12 polymorphic isozyme loci
Letouzey J., Thiébaut B. and allelic richness during postglacial 389-397. was studied in the European beech on the
and Petit R.J. colonization in the European beech. basis of an extensive sample of 389
62 Corre V.L., Kremer A. 2003 Genetic Variability at Neutral Markers, Genetics 164: QTL, DNA markers, populations distributed subdivided the
Genetic variability in a throughout
Quantitative Trait Loci and Trait in a 1205–1219 forest trees population under stabilizing and
Subdivided Population Under Selection diversifying selection was investigated at
63 Cottrell J.E., Munro 2002 Distribution of chloroplast DNA Forest Ecol Chloroplast DNA three levels: the non-coding region coding
Variation in neutral markers, QTL of
R.C., Tabbener H.E., variation in British oaks (Quercus robur Manag 156: (cpDNA); Quercus chloroplast DNA (cpDNA) was studied to
Gillies A.C.M., Forrest and Q. petraea): the influence of 181–195 robur; Quercus petraea; determine the route and pattern of
64 G.I., Deans J.D., Lowe
Csaikl U.M., Glaz I., Chloroplast DNA variation human
2002 postglacial colonisation andof white oak Forest Ecol PCR–RFLP;DNA,
Chloroplast postglacial recolonisation of native oak
In this study we were interested how
Baliuckas V., Petit R.J., in the Baltic countries and Poland Manag 156: cpDNA, Quercus robur, recolonisation of oak in the Baltic region
Jensen J.S. 211-222 Quercus petraea, PCR- occurred after the last ice-age. To analyse
65 Csaikl U.M, Burg K., 2002 Chloroplast DNA variation of white oaks Forest Ecol RFLP, phylogeography,
Chloroplast DNA; After the last glacial (cpDNA) the Alps
the chloroplast DNA maximum variation
Fineschi S., Konig A.O., in the alpine region Manag 156: Quercus robur; Quercus have represented a major obstacle to the
Matyas G., Petit R.J. 131–145 petraea; Quercus recolonisation of central and northern
66 Dayanandan S., Rajora 1998 Isolation and characterization of Theor Appl pubescens; PCR–RFLP;
Poplars, Populus, simple We have identified, fauna surviving in
Europe by flora and isolated, and
O.P., Bawa K.S. microsatellites in trembling aspen Genet 96: 950-sequence repeats, characterized microsatellite/simple
(Populus tremuloides ). 956. microsatellite loci, sequence repeat (SSR) loci in trembling
67 Degen B., Caron H., 2001 Fine-scale spatial genetic structure of Heredity 87: polymorphism, clone
Genetic distance, The fine-scale tremuloides) structure of
aspen (Populusspatial geneticby screening
Bandou E., Maggia L., eight tropical tree species as analysed by 497-507. permutation test, RAPD, eight tropical tree species (Chrysophyllum
Chevallier M.H., RAPDs. spatial genetic structure, sanguinolentum, Carapa procera,
68 Leveau A., Kremer A.
Deguilloux M-F., 2002 Novel perspectives in wood certification woody trees, PCR;
Proc. R. Soc. tropicaltissues;forest treesDicorynia guianensis, Eperua grandiflora,
The importance of wood for human
Pemonge M.H., Petit and forensics: dry wood as a source of Lond. B 269: DNA retrieval; societies can hardly be understated. If dry
R.J. DNA 1039–1046 contaminations; wood were amenable to molecular genetic
69 Demesure, B., Comps, 1995 Chloroplast DNA phylogeography of the Evolution 50 genotyping, forest trees
Fagus sylvatica , investigations, this could lead to major
B., and Petit, R.J. common beech (Fagus sylvatica L.) in (6): 2515- intraspecific cp DNA
Europe. 2520. diversity,
70 Dong, J.and Wagner, 1994 Paternally inherited chloroplast Genetics 136: phylogeography, seed
forest trees We have surveyed a chloroplast DNA
D.B. polymorphism in Pinus: estimation of 1187-1194. restriction fragment length polymorphism
diversity and population subdivision, and in 745 individuals, distributed rangewide
tests of disequilibrium with a maternally in eight allopatric natural populations of
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
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73 Dumolin-Lapègue, S., 1999 Are chloroplast and mitochondrial dna Evolution, trees
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Kremer, A. and Petit, variation species independent in oaks? 53(5): 1406- introgression, mtDNA,
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74 Egertsdotter, U., van 2004 Gene expression during formation of Plant Biology occurrence, white oaks,
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Peter, G., Kirst, M., Expression profiles of 350 genes. transcript profiles with the resulting wood
75 Clark, C., Whetten, R.
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76 Farnum P., Lucier A. 2007 Ecological and population genetics PaperGenetics transgenic trees, gene
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and Meilan R. research imperatives for transgenic trees & Genomes 3 flow, ecological effects, albeit incomplete, scientific knowledge is
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77 Fineschi,S., Gillet, E. 1990 Genetic of sweet chestnut( Castanea Silvae Electrophoresis, regulatory, and social/ethical issues the
Genetic analysis was performed on
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78 Fineschi S. 1988 Short Note: Genetics of chestnut Silvae forest trees
Isozymes, grafting, isocitrate dehydrogenase (IDH), selected
A sample of 30 individuals was
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of isozyme phenotypes in grafted 2: 82-83. trees Italy and examined for the following
79 Fineschi, S., Gillet, E. 1991 orchards. among fruits from single
Segregation Biochemical forest trees enzyme systems: LAP, GOT, SKDH, IDH,
and Malvolti, M. E. burrs of sweet chestnut Castanea sativa markers in the
Mill. population
80 Fineschi S., Taurchinia 2002 Chloroplast DNA variation of white oaks genetics of
Forest Ecol Chloroplast DNA; Polymorphism in non-coding regions of
D., Grossoni P., Petit in Italy Manag 156: Quercus petraea; Q. the chloroplast genome was studied in
R.J., Vendramin G.G. 103–114 robur; Q. pubescens; Q. four white oak species (Q. robur L., Q.
frainetto; petraea (Matt.) Liebl., Q. pubescens Willd.
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81 Finkeldey, R. 2001 Genetic variation of oaks (Quercus spp .) Silvae Differentiation, diversity, Sessile oak (Quercus petraea) and
in in switzerland. 2. Genetic structures inGenetica 50, isozyme, homozygote, pedunculate oak (Q. robur) are two closely
''Pure'' and ''Mixed'' forests of 1: 22-30. excess, Quercus petraea , related, interfertile taxa. They are the most
82 Finstad K., Bonfils A- 2007 pedunculate oak (Q, robur L.) and
Trees with novel traits in Canada: Tree Genetics biosafety seed
Q. robur ,regulation, frequent oak species in Switzerland.
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84 Lacoste N. J., Pereira,
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Isozymes, chestnut, and the closely related species Fraxinus
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Gouyon P.H. populations of chesnut (Castanea sativa 634-641 propagation, Castanea
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87 Boerjan W., Bradshaw
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88 Gartland K.M.A., 2002 AFLP markers.
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the female sidebiotechnology to trees and
Kellison R.C., Fenning Forests of the Future Document for forest trees forests will have significant impacts
T.M. Presentation worldwide and particularly, by early
89 Gartland K.M.A. & 2007 Growing trees: risks and rewards for and Genetics
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90 Gebhardt K., Frühwacht- 1993 Micropropagation and restricted-growth Ann. For. Sci. The winter is far from complete.
forest trees vitro culture, ecosystems buds of stump sprouts,
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Wilms U. and storage of adult oak genotypes 50: 323-329 bud, temperature, epicormic shoots and grafts from adult
Weisgerber H. conservation, forest trees pedunculate and sessile oak trees proved
to be valuable sources of shoot tips.
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91 Gerard P.R., Fernandez- 2006 New insights in the recognition of the Ann. For. Sci. ashes, RAPD-SCAR, Common ash (Fraxinus excelsior L.) and
Manjarres J.F., European ash species Fraxinus excelsior 63: 733–738 dormancy, discriminant narrow-leaved ash (F. angustifolia Vahl)
Bertolino P., Dufour J., L. and Fraxinus angustifolia Vahl as markers, hybridization, are the most common ash species
92 Raquin C., Frascaria-M.
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93 Gerber, S., Mariette, S., 2000 Comparison of microsatellites and Molecular megagemetophyte, forest
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94 Glenn T. Howe, Sally 2003 From genotype to phenotype: unraveling Can. J. Bot. association genetics, cold with those of codominant multiallelic
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J., Paule L. robur/Quercus petraea complex in petraea, Quercus robur, oaks (Quercus petraea and Q. robur),
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98 Goncharenko G., Kurm 2005 FranceBIOLOGIA 47 (7): 571-579 1992 Baltic Forestry clinal variation, forest
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Using isoenzymes as genetic markers
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99 ShevchenkoZhou Y., 2002 Megagametophyte-derived linkage maps Theor Appl differentiation, forest
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RAPD, SCAR and ESTP markers 7): 987-997 map, RAPD, SCAR, (Moench) Voss]. Haploid
100 Grattapaglia, D. 2000 Molecular breeding of Eucalyptus . Jain, S.M. and forest trees
forest trees megagametophytes from 92 and 96 seeds
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Minocha, S.C.
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101 Grattapaglia, D. Opportunities and challenges for the Conferencia forest trees -
incorporation of genomic analysis in IUFRO sobre
Eucalyptus breeding. Silvicultura e
102 Grattapaglia D., 1996 Genetic Mapping of Quantitative Trait Melhoramento QTL, growth, wood
Genetics 144: Quantitative trait loci (QTL) mapping of
Bertolucci F.L.G., Loci Controlling Growth and Wood 1205-1214 quality, forest trees forest productivity traits was performed
Penchel R., Sederofft Quality Traits in EucaZyptus grandis using an open pollinated half-sib family of
103 R.R.
Grattapaglia, D., 1994 Genetic mapping Half-sib Family and
Using a Maternal of quantitative trait loci Genetica 236- forest trees Eucalyptw grandis. For volume growth, a
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Penchel, R. and quality traits in Eucalyptus grandis using
104 Sederoff, R. D,
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Ribeiro, VJ, Rezende, trees using paternity testing with Genet 109 (1): paternity, microsatellites, modifications in old forest tree seed
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105 Gros-Louis, M.-C.,, 2005 short term breedingmarkers inEucalyptus
Species-diagnostic tactic for Larix spp. Tree Genetics ESTP, Hybrids, Larix, Genetic markers from the and then
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Bousquet, J.,, Paques, based on RAPDs and nuclear, cpDNA, & Genomes, Genetic identity, Genetic chloroplast, and mitochondrial genomes
L.E. and Isabel, N. and mtDNA gene sequences, and their V1(2):50-63. fingerprint, cpDNA, were developed to distinguish
106 Guillet-Claude C., 2004 phylogenetic implications.
The evolutionary implications of knox-I Mol Biol Evol mtDNA, Phylogeny,
conifer knox-I genes; unambiguously among four larch species
Class I knox genes code for transcription
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Bousquet J. evidence from phylogeny, gene mapping, 2245 functional divergence; growth and development as central
107 Gunter L.E., Kopp R.F., 2003 and analysissex-linked, sequence-
Analysis of of functional divergence Can. J. For. gene duplication;
Salix, SCAR markers, regulators of meristem, cell identity.
Two DNA markers, sequence-
McCord R.P., Tuskan characterized amplified region markers Res. 33 (9): sex locus, forest trees characterized amplified region (SCAR)
G.A. in Salix eriocephala 1785-1790 AE08(780) and SCAR 354(520), known to
108 Gunter L.E., Roberts 2003 The development of two flanking SCAR Journal of Salix, SCAR markers, Most studies of flanking a putative sex
be linked to andsex determination systems
G.T., Lee K., Larimer markers linked to a sex determination Heredity 94 sex locus, forest trees in plants involve dioecious annuals that
F.W., Tuskan G.A. locus in Salix viminalis L. (2): 185-189 have known sex chromosomes. Despite
109 Gunter L.E., Tuskan 2000 Genetic variation and spatial structure in Global Change Gene flow, genetic the absence of such structures in the
G.A., Gunderson C.A. sugar maple (Acer saccharum Marsh.) Biology 6: 335- variation, global
and Norby R.J. and implications for predicted global- 344. warming, population
110 Gupta, AK, Kang, BY, 2005 scale environmental change.selectively
Large scale development of Mol Ecol structure, RAPDs, sugare
AFLP; SAMPL markers; The spruce (Picea) species are
Roy, JK, Rajora OP amplified microsatellite polymorphic Notes 5 (3): spruce, Picea, forest trees ecologically and economically important
L loci (SAMPL) markers in spruce (Picea) 481-483 in Canada. Highly informative markers
with high multiplex ratios are needed to
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111 Gyllenstrand N., 2007 A Norway spruce flowering locus T Plant Spruce, picea abies, Growth in perennial plants possesses an
Clapham D., Källman homolog is implicated in control of Physiology flowering, growth annual cycle of active growth and
T., and Lagercrantz U. growth rhythm in conifers 144: 248-257 rhythm, forest trees dormancy that is controlled by
112 Halpin C., Thain S.C., 2007 Ecological impacts of trees with Tree Genetics Ecological impacts, GM environmental factors, yet been performed
Few experiments have mainly photoperiod
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Lapierre C., Hopkins 3:101–110 Forest trees of genetic modification in long-lifespan
113 D.W.
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M.J.W., Murawski, variation. Correlations between species between
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114 M.D.K-H., Gordon M.P,
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Can. J. For. poplar, genetic Many species of Populus, particularly
Strauss S.H. cottonwoods (genus Populus) by Res. 27: 464- enginering, cottonwoods of sections Aigeiros and
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115 Hansen O.K., Kjær E.D. 2005 Chloroplast microsatellite variation in Tree Genetics trees
Chloroplast transformation. We of Abies
Fifteen populations demonstrate that
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causes for low differentiation among (3): 116-123 Differentiation, parts of its distributional area in the
116 Harry D. E., Temesgen 1998 populations PCR-based markers for
Codominant Theor Appl Nordmann fir, forest
STS, Codominant PCR Caucasian a strategy for genotyped for
We report region, were developing
B., Neale D.B. Pinus taeda developed from mapped Genet 97: 327- marker, RFLP, Loblolly codominant PCR-based genetic markers
cDNA clones 336 pine, Pinus taeda, by using sequenced cDNA clones from
117 Heckrodt, W.F. 1987 Close spaced short rotation poplar Poplar Comparative map, forest
forest trees loblolly pine (Pinus taeda L.). These
production using paper mill sludge as councils of the
mulch. United States
118 Hemmat, M., Weeden, 1994 Molecular marker linkage map for apple. and Canada
Journal of forest trees Linkage maps for two apple clones, White
N.F., Manganaris, A.G., Heredity 85 Angel and Rome Beauty, were constructed
and Lawson, D.M. (1) :4-11. using isozyme and DNA polymorphisms
119 Hertzberg M., Aspeborg 2001 A transcriptional roadmap to wood PNAS vol. 98 DNA micoarray, poplar, segregating in a population produced from
The large vascular meristem of poplar
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Andersson A., 14732–14737 trees xylem enables the boundaries between
Heurtz M., R.,
120 Erlandsson Carnevale 2006 Chloroplast DNA phylogeography of Molecular cpNA, Fraxinus, forest different developmental zones to be easily
We investigated range-wide
S., Fineschi S., European ashes, Fraxinus sp. (Oleaceae): Ecology 15 trees phylogeographic variation in three
Sebastiani F., Hausman roles of hybridization and life history (8): European ash species (Fraxinus sp.,
J. F., Paule L., traits. 2131–2140 Oleaceae). Chloroplast DNA (cpDNA)
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121 Heurtz M., Fineshi S., 2004 Chloroplast DNA variation and Molecular chloroplast DNA, We used chloroplast polymerase chain
Anzidei M., Pastorelli postglacial recolonization of common Ecology 13: chloroplast reaction-restriction-fragment length
R., Salivani D., Paule ash (Fraxinus excelsior L.) in Europe 3437–3452 microsatellite, Fraxinus polymorphism (PCR-RFLP) and
122 L., Frascaria-Lacoste J-
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Admixture, Bayesian To determine extant patterns assess the
chloroplast microsatellites to of population
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Vendramin G.G., between western and southeastern 976–988 population genetic insight into postglacial recolonization
123 Frascaria-Lacoste N., J-
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Assessment of genetic structure within Molecular structure,excelsior,
Fraxinus postglacial We analysed applied multilocus-based
processes, wegenetic variation within and
F., Tsvetkov I., and among Bulgarian populations of the Ecology 10: genetic structure, between populations of the common ash
Frascaria-Lacoste N., common ash (Fraxinus excelsior L.) 1615–1623 inbreeding, from Bulgaria in order to extract
124 Vekemans X.
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Fraxinus excelsior, biological information useful analysed
Spatial genetic structure was in the
X., Hausman J.-F., spatial genetic structure in the common Ecology 12: microsatellites, with five highly polymorphic
Palado M., Hardy O.J. ash 2483–2495 neighbourhood size, microsatellite loci in a Romanian
125 Hewitt, G.M. 1999 Post glacial re colonization of European Molecular DNA dispersal, seed
pollensequence, range population of common ash (Fraxinus
biota. genetics in change, population
animal structure, refugia, genetic
126 Holtken A.M., Tahtinen 2003 Effects of Discontinuous Marginal ecology.
Silvae divergence, biodiversity,
Common ash, Fraxinus Common ash (Fraxinus excelsior L.) has,
J., Pappinen A. Habitats on the Genetic Structure of Genetica 52, 5- excelsior, species in comparison to other tree species such as
Common ash (Fraxinus excelsior L.) 6: 206-212 northern margins, spruce (Picea), beech (Fagus) and oak
127 Hong, Y.-P., Hipkins, 1993 Chloroplast DNA diversity among trees, Genetics 135: discontinuous habitats,
forest trees (Quercus), poor competitive ability and is
The amount, distribution and mutational
V.D. and Strauss, S.H. populations and species in the California 1187-1196. nature of chloroplast DNA polymorphisms
closed-cone Pines (Pinus radiata, Pinus were studied via analysis of restriction
128 Houston, D.B. and 2000 muricata and Pinus attenuata ).
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American beech (Fagus grandifolia Ehrh.)
Houston, D.R. Fagus grandifolia tree resistant or Res. 30: 778- resistance, forest trees trees resistant (R = 760) and susceptible (S
susceptible to beech bark disease in 789. = 681) to beech bark disease were located
129 Howe G.T., Aitken 2003 natural populations.
From genotype to phenotype: unraveling Can. J. Bot. association genetics, cold Adaptation in nine cold in temperate and
and mappedto winternatural stands in West
S.N., Neale D.B, the complexities of cold adaptation in 81: 1247–1266 hardiness, dormancy, boreal trees involves complex genetic,
Jermstad D.D., Wheeler forest trees genecology, bud physiological, and developmental
Janssens, Chen T.H.H
130 N.C., and G.A., Goderis, 1995 A molecular method for S-allele Theor Appl phenology, quantitative
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Broothaerts, W. specific PCR. 698. incompatibility, S- the apple cv Golden Delicious have
alleles, PCR, forest trees previously been described, and now we
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131 Jany, J.L., Bousquet, J., 2006 Simple sequence repeat (SSR) markers Mycological forest trees Simple sequence repeat (SSR) markers
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D.P. bicolor for environmental monitoring of 110:51-59. genome libraries for the ectomycorrhizal
132 Jaramillo-Correa, J.P., 2006 introduced strains and molecular ecology
Decoupled mitochondrial and Molecular cpDNA, mtDNA, Picea basidiomycete Laccaria bicolor. Seven
Chihuahua spruce (Picea chihuahuana
Beaulieu, J., Ledig, F.T. chloroplast DNA population structure Ecology 15 chihuahuana, Picea Martínez) is a montane subtropical conifer
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133 Jaramillo-Correa, J.P., 2004 population isolation in a threatened
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Molecular history, forest trees
mtDNA, Picea, forest northwesterngenetic variation of black
Range-wide México. Range-wide
Beaulieu, J. and multiple distant glacial refugia in black Ecology 13 trees spruce (Picea mariana) was studied using
Bousquet, J. spruce (Picea mariana), a (9): 2735-2747 polymerase chain reaction-random
134 Jaramillo-Correa, J.P. Mitochondrial North recombination in
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Variation in mitochondrial DNA was
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hybridizing conifers. 1962. the zone of contact between two naturally
135 Jeandroz S., Collignon 2004 RAPD and mtDNA variation among Forest Ecol RAPD; mtDNA; hybridizing conifers, black spruce (Picea
RAPD phenotypic analysis (AMOVA and
A.M., Favre J.M. autochthonous and planted populations Manag 197 (1- autochtony; seed FCA) allowed to determine three groups
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136 Jensen J.S., Gillies A., Chloroplast DNA variation within other
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Csaikl U., Munro R., Nordic countries Manag 156: Quercus robur; Quercus studied in the white oak species, Quercus
Madsen S.F., Roulund 167–180 petraea; PCR–RFLP; robur and Quercus petraea, from
137 H., Low A.
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Thirty three unique quantitative Finland.
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K.S., Wheeler, N.C., Douglas-fir I. Timing of vegetative bud 1142-1151. environment interaction, flush have been identified in an
138 Neale, D.B.
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Isolation forest trees gene analog,
Resistance intraspecific mapping population of
The nucleotide-binding-site and leucine-
Sheppard L.A., Kinloch resistance gene analog candidate from & Genomes 2 SNP, Haplotype, rich-repeat (NBS–LRR) class of R
B.B., Delfino-Mix A., sugar pine showing low nucleotide (2): 76-85 Nucleotide diversity, proteins is abundant and widely
139 Ersoz E.S., Krutovsky
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140 Jonsson A. and Eriksson 1989 A review of genetic studies of some Dept Forest forest trees , Fraxinus ,
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141 Jörgensen J. 1993 Embryogenesis in Quercus petraea Ann. For. Sci. somatic embryogenesis, Embryogenesis in Quercus petraea was
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142 Junghans D.T., Alfenas 2003 Resistance to rust (Puccinia psidii Theor Appl petraea, forest trees
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143 Grattapaglia D.
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178 Le Corre V, Kremer A. 2003 Genetic variability at neutral markers, Genetics 164 differentiation; gene
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183 Lescot M., Rombauts S., 2004 (Meliacelae), aathreatened neotropical
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185 Lexer, C., Heinze, B., Microsatellite analysis spp.)
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187 Ziegenhagen, B., Glössl, 2001 contaminationsclonal propagation. seed
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188 Lindqvist-Kreuze, H., 2003 Genetic diversity of arctic bramble meeting at
Can. J. Bot. AFLP, breeding,
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The levels of genotypic forest by using a
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Inheritance and Journal of subsp. arcticus, Rubus
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190 Lu, M.-Z., Szmidt, A.E. 1995 Iheritance of RAPD fragments in haploid Heridity 74: Controlled cross, diploid tremuloides; n = 19) were examined for
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191 Lu, M.-Z., Wang, X.- 1997 Molecular properties of RAPs in Pinus Forest Pinus sylvestris , RAPD,
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192 Lundkvist K. 1978 Allozymes in population genetic studies presence/absence
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193 Luoranen, J., Zhang, G. 2005 Production of even-sized hybrid aspen of Norway trees. height, hybrid
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194 MacKay, J., Becwar, 2006 Genetic control of somatic Tree Genetics forest trees the large plugs (trays with 380-400 cm3
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195 Pullman, G.S.
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198 T., Gomory D., and
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consequences of long-term survivalof
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Goikoechea P., Konig Microsatellite Markers within and 2–3: 72-79 differentiation, Quercus Quercus spp. populations based on two
A., Lowe A.J., Van among Mixed Q. petraea (MATT.) robur, Quercus petraea, contrasting types of nuclear markers.
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202 Franscaria-Lacoste, N.,
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205 A.M., Sederoff R.and
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208 Metzler, B. and 1987 The in-vitro-mycorrhization of Pinus Sonderdruck Ouercus, ex vitro
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212 Merila J, Crnokrak P 2001 Comparison of genetic differentiation at Journal of microsatelittes genetic
allozymes, FST, Brazil. This mutant the degree of at
The comparison of plant flowers
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213 Merkle S.E., Andrade 2007 Restoration of threatened species: a (6): 892-903
Tree Genetics microsatellites, natural
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214 Maynard C.A. R.,
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Ann. For. Sci. įvairovė, forest trees
eucalypt, linkage maps, subrendusių gemalų kultūroje. has been on
A major focus of our research Didžiausią
K.A., Raymond C.A., 59 (5-6): QTL, candidate genes, using molecular technologies to guide
QiuaD., Uren T., 645–650 xylem, microarrays, breeding for high value wood and fibre
216 Southerton S.G.
Müller-Starck G., 1993 Intra- and interpopulational genetic Ann. For. Sci. forest trees
Quercus robur, Q traits in of 5 2-year-old populations ofbeen
In each eucalypts. One approach has
Herzog S. and Hattemer variation in juvenile populations of 50: 233-244 petraea, alloenzymes, Quercus robur and Q petraea (single and
H.H. Quercus robur L and Quercus petraea heterozygosity, diversity, multipopulation samples), genetic
217 Moreau, F., 1994 Liebl
Molecular differentiation between Q. Forest genetic distahce, genetic
RAPD, genetic variation was quantified with respect to 13
Kleinschmit, J. and petraea and Q. robur assessed by Genetics 1 (1):differentiation,
Kremer, A., random amplified DNA fragments. 51-64. similarity, Quercus
218 Morgante, M. and 2003 From plant genomics to breeding Current petraea , Quercus robur ,
genomics, breeding, New alleles are constantly accumulated
Salamini, F. practice. Opinion in QTL, SNP, MAS, forest during intentional crop selection. The
Biotechnology trees molecular understanding of these alleles
219 Müller-Strack, G. 1992 Genetic variation within European tree ,14: 214–219.
New Forets 6: Genetic markers, has stimulated new genomic approaches to
Baradat, Ph. and species. 23-47. isoenzymes, terpenes,
Bergmann, F. polyphenols,
220 Muona, O., Yazdani, R 1987 Analysis of linkage in Picea abies . Heriditas 106: heterozygosity,
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221 Murillo, O. and 1997 Inheritance of isozyme variants of Alnus Silvae Alnus acuminata , Inheritance of isozyme variants of Alnus
Hattemer, H.H. acuminata ssp.arguta (Schlectendal) Genetica 46: isozymes, inheritance acuminata ssp. arguta were determined on
Furlow. 51-54. analysis, forest trees the basis of horizontal starch gel
222 Namkoong G. and 2001 Application of Genetic Markers to Forest Draft report to Isozymes, DNA markers, electrophoresis procedures. Vegetative as
The application of genetic markers such
Koshy M.P. tree species IPGRI of the RAPD, microsatelites, allozymes and DNA (Deoxyribose Nucleic
project SSR, AFLP, RFLP, Acid) markers has shown to be useful in
223 Nance, W.L., Tuskan, 1992 Potential applications of molecular ―Developing VNTR, forest trees
Can. J. For. DNA markers, host- studying geneticmolecular in humans,
Applications of diversity markers for
G.A., Nelson, C.D. and markers for genetic analysis of host- Res. 22: 1038- pathogens, forest trees genetic analysis of host–pathogen systems
Doudric, R.L. pathogen systems in forest trees. 1045. are presented within the framework of the
224 Naugžemys D., Žvingila 2006 Comparison of DNA polymorphism in Biologija 1: 30-Pinus sylvestris, gene-for-gene model. The literature on
We used random amplified polymorphic
D., Aučina A., Rančelis seedlings of Pinus sylvestris L. from 35 comparison of DNA (RAPD) to examine genetic
V. different populations by RAPD markers populations, RAPD, differences among three populations of
225 Neale, D.B., Devey, 1992 Use of DNA markers in forest tree New Forests genetic diversity, mean
DNA markers, genetic Pinus sylvestris L. (Labanoras,
M.E., Jermstad, K.D., improvement research. 6: 391-407. maps, RFLPs, forest
Ahuja, M.R., Alosi, trees
226 M.C. and Marshall,
Neale D.B., Sewell 2002 Molecular dissection of the quantitative Ann. For. Sci. QTL, wood properties, Significant progress has been made toward
M.M. and Brown G.R. inheritance of wood property traits in 59: 595-605 SNP, marker-aided the molecular dissection of the
loblolly pine breeding, loblolly pine, quantitative inheritance of wood property
227 Nesbitt KA, Potts BM, 1997 Fingerprinting and pedigree analysis in Silvae MAS, Forest trees
Eucalyptus globulus; traits in were used to confirm clonal and
RAPDs loblolly pine (Pinus taeda L.)
Vaillancourt RE, Reid Eucalyptus globulus using RAPDs genetica 46 RAPD; fingerprinting; fidelity and distinguish individuals of
JB (1): 6-11 breeding system; varying degrees of relationship in
228 Nicole M-C., Hamel 2006 MAP-ping genomic organization and BMC Populus analysis;
pedigree trichocarpa, Eucalyptus globulus.other eukaryotes,was
Background: As in RAPD variation
L.P., Morency M-J., organ-specific expression profiles of Genomics 7: genome mapping, forest plant mitogen-activated protein kinase
Beaudoin N., Ellis B.E., poplar 223 trees (MAPK) cascades are composed of
229 Seguin A. L.M.,
O'Connell 2006 MAP kinases and MAP kinase kinases Heredity 97
mpacts of forest fragmentation on the conifer; forest three classes of hierarchically organized
We studied the mating system of white
Mosseler A., Rajora mating system and genetic diversity of (6): 418-426 fragmentation; genetic spruce (Picea glauca) in a landscape
O.P. white spruce (Picea glauca) at the diversity; mating system; fragmented by agriculture in northern
230 I
Oddou-Muratorio S., Real-time level
2006 landscape patterns of pollen flow in the Am J Bot 93 pollen pool; white
correlated paternity; Ontario, Canada. We sampled 23 stands as
Understanding the role of mother plants
Klein E.K., Demesure- wild-service tree, Sorbus torminalis (11): 1650- covariance analyses; pollen recipients in shaping mating
Musch B., Austerlitz F. (Rosaceae). III. Mating patterns and the 1659 flowering phenology; patterns is essential for understanding the
ecological maternal neighborhood insect pollination; pollen evolution of populations and in particular
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
231 Oddou-Muratorio S., 2004 Impacts of gene flow and logging history Molecular microsatellite; Ripley's K- Sorbus torminalis L. Crantz is a colonizing
Demesure-Musch B., on the local genetic structure of a Ecology 13 function; silviculture; tree species usually found at low density
Pelissier R., Gouyon scattered tree species, Sorbus torminalis (12): 3689- SPAGEDI; spatial auto- in managed European forests. Using six
232 P.H.
Oddou-Muratorio S., 2003 L. Crantz in the wildservice tree,
Pollen flow 3702
Molecular correlation;microsatellite; microsatellite markers, of polymorphic
CERVUS; spatial The joint development we investigated
Houot M.L., Demesure- Sorbus torminalis (L.) Crantz. I. Ecology 12 parentage assignment; molecular markers and paternity analysis
Musch B., Austerlitz F. Evaluating the paternity analysis (12): 3427- population size; scoring methods provides new approaches to
233 Olalde M., Herran A., 2002 procedure in continuous populations
White oaks phylogeography in the 3439 Ecol
Forest The geographic distribution of pollen flow
error; simulations, forest investigate ongoing patterns of maternally
Oaks; cpDNA;
Espinel S., Goicoechea Iberian Peninsula Manag 156: Phylogeography; Genetic inherited chloroplast DNA polymorphisms
P.G. 89–102 diversity; Glacial was studied to determine the
234 Ouinsavi, C., Sokpon, 2006 Novel microsatellite DNA markers for Molecular refugia, tree species;
African forest trees Eleven microsatellite primer white oaks
phylogeographic structure of pairs were in
N., Bousquet, J., the threatened African endemic tree Ecology enriched genomic developed for the tropical African tree
Newton, C.H. and species, Milicia excelsa (Moraceae), and Notes, library; microsatellites; Milicia excelsa. Genomic DNA was
Paglia, D.P.
235 Khasa, G.P., Olivieri, 1998 cross-species amplification in Milicia
Towards second generation STS 6(2):480-483.
Mol Gen Milicia, forest trees
Picea abies , Linkage enriched for dinucleotide (TCn and
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A.M., Morgante, M. (sequuence- tagged sites) linkage maps Genet 258: map, sequence-tagged
in conifers : a genetic map of Norway 466-478. sites, AFLP, SAMPL,
236 Palme, A. Evolutionary history K.)
2003 spruce ( Picea abies and chloroplast Dissertation, forest trees DNA,
Chloroplast -
DNA variation in three plant genera: Uppsala phylogeography,
Betula, Corylus and Salix. The impact of University, 59 hybridization,
237 Palme, A.E., Su,Q., 2004 post-glacial colonization and
Extensive sharing of chloroplast p.
Molecular phylogeny, Salix caprea, Extensive sharing of chloroplast
Betula pendula, Betula
Palsson, S., Lascoux, M. haplotypes among European birches Ecology 13: pubescens, Betula nana, haplotypes among the silver birch, Betula
indicates hybridization among Betula 167 –178. chloroplast, pendula Roth., the downy birch, B.
238 Pandey M. 2005 pendula , B.pubescens and B.nana .
Development of microsatellites in Dissertation, hybridization,
Microsatellites, pubescens Ehrh., and the dwarf birch, B.
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sycamore maple (Acer pseudoplatanus Georg-August sycamore maple, Acer
L.) and their application in population University of pseudoplatanus,
239 Pandey M., Gailing O., 2004 genetics
haracterization of microsatellite markers Gottingem,
Mol Ecol population genetics,
Acer pseudoplatanus; Sycamore (Acer pseudoplatanus L.) is a
Fischer D., Hattemer in sycamore (Acer pseudoplatanus L.) Notes 4 (2): cross-species tetraploid European hardwood tree
H.H., Finkeldey R. 253-255 amplification; maple; species. The reproduction system of the
240 C
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microsatellite; The present study concentrated on of
Aravanopoulos, F.A., Islands of the Northeastern Aegean Sea. Genetica 47, Aegean, population brutia TEN. one of the main forest species
Scaltsoyiannes, A. 2–3:115-120. genetics, forest trees of the Aegean islands and one of the most
important low-elevation Mediterranean
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
241 Park Y-S. 2002 Implementation of conifer somatic Ann. For. Sci. somatic embryogenesis, Cloning of trees using somatic
embryogenesis in clonal forestry: 59: 651-656 cryopreservation, genetic embryogenesis (SE) could have a major
technical requirements and deployment stability, clonal forestry, impact on tree breeding and commercial
242 Patamsytė J., Žvingila Assessement of p. 651
2005 considerations ecological impact on Biologija 4: tree improvement, forest
RAPD, population The genetic diversity conjunction with
plantation forestry. Inof Rubus idaeus L.
D., Mažonytė I., genetic diversity among populations of 24–28 differentiation, rubus both within and among the populations in
Kleizaitė V., Baliuckas Rubus idaeus L. idaeus , forest trees different ecological conditions was
Paterson, A.H., L.,
243 V., Balčiūnienė Lander, 1988 Resolution of quantitative traits into Nature, vol forest trees compared. The diversity of RAPD markers
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E.S., Hewitt§, J.D., Mendelian factors by using a complete 335: 721-726.
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244 and Tanksley, S.D. J.,
Pavy, N., Laroche, 2005 length polymorphisms.
Large-scale statistical analysis of Plant forest trees A computational analysis of pine
Bousquet, J. and secondary xylem ESTs in pine. Molecular transcripts was conducted to contribute to
MacKay, J. Biology, the functional annotation of conifer
245 Pavy, N., Parsons, L.S., 2006 Automated SNP detection from a large 57(2):203-224.
BMC forest trees Background: statistical analysis of
sequences. A High-throughput genotyping
Paule, C., MacKay, J. collection of white spruce expressed Genomics 7: technologies represent a highly efficient
and Bousquet, J. sequences: contributing factors and 174 way to accelerate genetic mapping and
246 Pavy, N., Paule, C., 2005 approaches for the categorizationand
Generation, annotation, analysis of BMC forest trees enable associationsequencing and analysis
Background: The studies. As a first step
Parsons, L., Crow, J.A., database integration of 16,500 white Genomics 6: of ESTs is for now the only practical
Morency, M.J., Cooke, spruce EST clusters. 144. approach for large-scale gene discovery
247 J., Johnson, J.E.,
Pelgas B., Beauseigle 2006 Comparative genome mapping among Theor Appl EST, Pinus taeda, QTL, and annotation in conifers because their
A composite linkage map was constructed
S., Achere V., Jeandroz Picea glauca, P-mariana x P-rubens and Genet genetic linkage maps, from four individual maps for the conifer
S., Bousquet J. and P-abies, and correspondence with other 113(8):1371- microsatellite markers, Picea glauca (Moench) Voss, from
248 Isabel N. Bousquet, J.,
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A composite linkage map from two 1393 Appl
Theor Lobloly-pine, Black
Codominant markers, anonymous and linkage maps were
Four individual gene-specific markfers
Beauseigle, S. and crosses for the species complex Picea Genet colinearity,comparative constructed from two crosses for the
Isabel, N. mariana x Picea rubens and analysis of 111(8):1466- mapping,consensus map, species complex Picea mariana (Mill.)
249 Pelgas, B, Isabel, N, 2004 synteny with other Pinaceae.
Efficient screening for expressed 1488Breeding
Mol Pinaceae, synteny, forest B.S.P. is an urgent need to accelerate the
Codominant markers, There × Picea rubens Sarg in order to
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DNA pool sequencing and denaturing 279 mapping, insertion- markers of coding regions such as ESTPs
250 Pereira-Lorenzo, S., 1996 gradient geland grouping of northwestern J. Amer. Soc.
Variability electrophoresis (DGGE) in Castanea sativa , genetic (expressed sequence tag polymorphisms)
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251 Perry, DJ, Isabel, N, 1999 Sequence-tagged-site (STS) markers of Heredity 83: allelic sequence We examined the amount and nature of
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variation revealed in Norway spruce PCR-based markers; sequence-tagged-site (STS) markers in
252 Petit, RJ, Aguinagalde, 2003 Glacial refugia: Hotspots but not melting Science 300 conifer genes; multiplex
cpDNA, refugia, genetic Norwayrefuge areas are expectedKarst.)
Glacial spruce (Picea abies (L.) to harbor
I, de Beaulieu, JL, pots of genetic diversity (5625): 1563- diversity, forest trees a large fraction of the intraspecific
Bittkau C, Brewer S, 1565 biodiversity of the temperate biota. To test
253 Cheddadi R, Ennos R,
Petit R.J., Csaikl U.M., 2002 Chloroplast DNA variation in European Forest Ecol Admixture genetic this hypothesis, we studied chloroplast
A consortium of 16 laboratories have
Bordacs S., Burg K., white oaks Phylogeography and patterns Manag 156: diversity, genetic studied chloroplast DNA (cpDNA)
Coart E., Cottrelle J., of diversity based on data from over 5–26 differentiation, variation in European white oaks. A
254 van Dam B., Deans J.D.,
Petit R.J., Brewer S., 2002 2600 populationsrefugia and post-glacial
Identification of Forest Ecol introgression, Glacial
Fossil pollen; phylogeny, common strategy for molecular screening,
The geographic distribution throughout
Bordacs S., Burg K., colonisation routes of European white Manag 156: period refugia; Europe of each of 32 chloroplast
Cheddadi R., Coart E., oaks based on chloroplast 49–74 Phylogeography; DNAvariants belonging to eight white oak
Petit R.J., Csaikl U.M.,
255 Cottrell J.,Latouche- 2002 DNA and fossil pollen evidence in
Chloroplast DNA variation of oaks Forest Ecol Quercus, forest trees
Genetic differentiation; Chloroplast DNA variation populations in
species sampled from 2613 was studied is
Halle C., Pemonge France and the influence of forest Manag 156: Interspecific gene flow; a total of 878 French oak populations from
M.H., Kremer A. fragmentation on genetic diversity 115–129 Landscape structure; four different species. Three main cpDNA
256 Petit J.R., Wagner D.B. 1993 Ribosomal DNA and chloroplast DNA Ann. For. Sci. Postglacial
Quercus petraea, More than 70 found, which have well-
lineages were trees belonging to the
and Kremer A. polymorphisms in a mixed stand of 50: 41-47 Quercus robur, gene morphologically distinguishable species
Quercus robur and Q petraea flow, diversity, Quercus robur L and Quercus petraea
257 Pfeiffer, A., Olivieri, 1997 Identification and characterization of Genome 40: sympatry, forest trees
Microsatellite, repetitive (Matt) Liebl were sampled in a mixed
A.M., and Morgante, M. microsatellites in Norway spruce (Picea 411-419. DNA, hypervariability,
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258 Pigliucci, M., Villani, 1990 Geographic and climatic factors J. Genet 69 complexity, forest trees
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gene frequencies in Castanea sativa test, isozymes, spatial
259 Plomion, C., Durel, C.- 1996 Mill. From Turkey.of height in maritime
Genetic dissection Theor Appl structure, forest, trees
Pinus pinaster Random Amplified Polymorphic DNAs
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260 Plomion C., Hurme P., 1999 Developing SSCP markers in two Pinus Molecular megagametophyte, forest
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This study demonstrates the feasibility of
Frigerio J-M., Ridolfi species Breeding 5: Pinus sylvestris, linkage generating sequence-based markers in
M., Pot D., Pionneau C., 21–31, map, forest trees Pinus species, from data available in
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261 Plomion C., Bahrman 2000 Proteomics for genetic and physiological Proteomics, genetic The significant advances in proteomics
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Frigerio J.M., Gion J.- maritime pine. expression analysis, dimensional gel electrophoresis coupled
Plomion C., C., Madur
262 M., Lalanne LeProvost 2001 Pollen contamination in a maritime pine Can. J. For. QTL, forest trees
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with mass-spectrometryorchard was as a
G., Pot D., Vendramin polycross seed orchard and certification Res. 31: forest trees developed by Institut National de la
G., Gerber S., Decroocq of improved seeds using chloroplast 1816–1825 Recherche Agronomique for the maritime
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263 C., Brach C., Raffin A., 2005 microsatellites
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264 Pollefeys, P. and Molecular USA, diversity of the
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265 Premoli A.C. 2003 Isozyme polymorphisms provide Journal of Vitis, forest trees
Isozymes, clinal Variable physical conditions the
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266 Rahman, M.H., 2000 Microsatellite DNA markers in Populus 218–226.43: Poplar, microsatellites, species.Here, the hypothesis is testedDNA
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Dayanandan, S. and tremuloides. 293–297. genetic mapping, simple or simple sequence repeat (SSR) loci were
Rajora, O.P. sequence repeat (SSR) developed and characterized in trembling
267 Rahman, M.H. and 2002 Microsatellite DNA fingerprinting, Genome 45: markers, DNA
Populus, simple aspen (Populus tremuloides) from a partial
Accurate identification of Populus clones
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of clones, cultivars, and varieties of six clonal identification, selection, breeding, and genetic resource
268 Rajora O.P. and Dancik 2000 Population genetic three sections of the
poplar species fromvariation, structure, Can. J. Bot. genetic fingerprinting,
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B.P. and evolution in Engelmann spruce, 78: 768–780 engelmannii, of 12 populations of putative Engelmann
white spruce, and their natural hybrid biosystematics, natural spruce (Picea engelmanii Parry), white
269 Rajora, O.P., DeVerno, 1998 complexdiversity and population
Genetic in Alberta Can. J. Bot. hybridization, species The dramatic glauca of eastern white and
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272 Raspé, O., Jacquemart, 1998 canadensis) cultivars
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273 Ribeiro M.M., 2002 zymograms.
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LeProvost G., Gerber S., stands in France using chloroplast simple- 59 (1): 53–62 terpene, origin western Iberian regions (Portugal and
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274 Anzidei M., Decroocq
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Genetic engineering has provided tools to
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276 Rohde A., Prinsen E., 2002 PtABI3 Impinges on the Growth and The Plant Poplar, protein Hybridization of Populus through
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Molecular markers are currently being
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279 Rusanen, M., Vakkari, 2003 Genetic structure of Acer platanoides 10-13. For.
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of Quercus cerris, Q pubescens, Q. genetic relationships, samples of Quercus cerris, Q. pubescens,
petraea and Q. robur (Fagaceae) from hybridization, forest Q. petraea, and Q. robur. Genetic
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281 Sanchez, N., Grau, J.M., 1998 RAPD Markers for the iIdentification of Silvae Populus, RAPD DNA, Twenty five poplar clones, namely, 5 of
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282 Sander T., König S., 2000 Genetic variation of European beech Molecular trees frequencies,
Allele Allelic and genotypic variation ―Platero‖
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283 Savolainen, O. and 1992 Germany.forest management on gene
Effect of For Sci 6??: genotype frequencies,
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Kärkkäinen, K. pools. 329-345?? management, genetic
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284 Schubert R., Mueller- 2001 Development of EST-PCR markers and Theor Appl regeneration, seed EST-
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285 Scotti I., Magni F., Fink 2000 Microsatellite repeats are not randomly 1
Karst. Genome Intrapopulational
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A Norway spruce the results of similarity
R., Powell W., Binelli distributed within Norway spruce (Picea 43(1): 41–46 microsatellites, SSRs, library obtained from vegetative bud tissue
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286 Scotti-Saintagne C., 2004 Genome Scanning for Interspecific Genetics 168: genetics, forest trees
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288 Senneville, S., Beaulieu, 2001 Evidence for low genetic diversity and J For Res 31: mapping, forest trees
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291 Shepherd M., Cross M., 2002 Branch architecture QTL for Pinus Ann. For. Sci. genetic mapping, branch Putative quantitative trait loci (QTL) of
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294 Sosinski, B., 2000 Characterization of microsatellite Theor Appl risks
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295 King, G.J., Ryder, C.D.,
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298 Sterky F., Regan S., 1998 Gene discovery in the wood-forming Proc. Natl. cambium, forestry, concerning the implementation of clonal
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299 Holmberg A., Amini B., 2003 Comparative sequence analysis between
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303 Strauss, S.H., Lande, R. 1992 Limitations of molecular-marker-aided Can. J. For. phylogeny, forest trees
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306 Tammisola J., Akerman 1994 Strategies of pooling for parentage Biometrics in disequilibrium, self-
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314 Tyson, M, Vaillancourt, Determination time
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315 Tulsieram L.K., 1992 Single tree genetic linkage mapping in Biotehnology forest trees of mallee eucalypts unreliable. DNA
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317 I., Hellsten U., Putnam
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318 Vaillancourt, R.E., 1995 Using RAPDs to, detect QTLs in an CRC for forest trees the sequencing of the Populus trichocarpa
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342 Welling A., Moritz T., 2002 Independent Activation of Cold 1207–1219
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350 Wu, J., Krutovskii, 1999 Nuclear DNA diversity, population Genome 41, We studied nuclear gene dynamics of
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352 Wu, R, Bradshaw, HD, 1998 leaf variation quantitative genetics of
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353 Wunsch A. and 2002 Molecular characterisation of sweet Heredity 89: QTL, seedling, forest
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354 Zanetto, A., Roussel, 1994 SSR sequences
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355 Zhang, D.-X., Hewitt, 2003 Nuclear DNA analyses in genetic studies Molecular differentiation, forest
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356 Žiauka, J. and Kuusienė, 2006 Changes in Development of European Baltic Forestry recombination, forest
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357 Žvingila, D., Verbylaitė, 2005 Genetic diversity (RAPD) in natural Biologija 3: change, diversity, RAPD
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358 Žiauka J., Kuusienė S. 2007 Illumination-dependent effects of Biologija 1: structure, forest trees
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European larch shoots forest trees developing from isolated axillary buds
359 Vettori C., Vendramin 2004 Geographic distribution of chloroplast Theor Appl Fagus sylvatica, beech, The distribution of chloroplast decade
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362 Winzeler M., Zanetti
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363 N. M., Sasaki T.
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Biology 35: Oryza sativa - positional rice has made possible a new phase of
364 Feuillet C., Messmer 1995 Genetic and physical characterization of 145-153 and
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365 Louie R., Findley W. R., 1991 Genetic basis of resistance in maize to 553-562
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366 Xiao J., Li J., Yuan L., 1996 Genetic diversity and its relationship to TAG mays- Heterosis -
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Ten elite inbred lines (four japonica,
McCouch S. R., hybrid performance and heterosis in rice Theoretical RAPDs - Microsatellites - indica), chosen from those widely used in
Tanksley S. D. as revealed by PCR-based markers and Applied Genetic distance the hybrid rice breeding program at
367 Marsan P. A., The challenge Rice Research Center
1998 Genetic diversity and its relationship to Genetics 92: DNA polymorphisms · Human Hybridto maize breeders is to in
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368 M.
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Johnson D. A., Beiles (Hordeum spontaneum C. Koch) in the Resources and wild barley - Hordeum genotypes from 20 populations of wild
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369 Rani V., Raina S. N. Genetic Amplified Polymorphic DNA Evolution
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370 Marhic A., Antoine- 1998 Genetic improvement of anther culture l Biology -
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Murigneux A., Beckert traits 520-525 traits experimental synthetic population of
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371 Kumar V., Davey M. 1991 Genetic improvement of legumes using Euphytica 55: gene transfer - genetic The merits and limitations of somatic cell
R. somatic cell and molecular techniques 157-169 manipulation - chimaeric techniques involving Agrobacterium-
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372 Harding K. 2004 Genetic integrity of cryopreserved plant Cryoletters 25: transformation - somatic transfer and protoplast fusion, are for
Conservation, Cryopreservation techniques exist
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373 Jacobs J. M. E., Van 1995 genetic map of potato (Solanum TAG A genetic map of in the exposure
stability, plants markers - germplasm resultspotato (Solanum of
Morphological
Eck H. J., Arens P., tuberosum ) integrating molecular Theoretical Isozymes - Non-inbred tuberosum L.) integrating molecular
Verkerk-Bakker B., Te markers, including transposons, and and Applied species - Combined map - markers with morphological and isozyme
374 Lintel Hekkert B.,
Bolibok H., Rakoczy- Genetic markers
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Genetics 91: JoinMap marker - QTL markers was constructedcultured backcross
Euphytica molecular
Trojanowska M. Culture Response in Plants Volume 149, analysis - regeneration has been shown to be under genetic
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375 Bohn M., Utz H. F., 1999 Genetic similarities among winter wheat 73-83Sci
Crop response
winter wheat, RFLPs, Using quantitative trait lociprograms could
The efficiency of breeding (QTL)
Melchinger A. E. cultivars determined on the basis of 39:228-237 AFLPs, SSRs, Genetic be increased by predicting the prospects of
RFLPs, AFLPs, and SSRs and their use similarities crosses for line development before
376 Desgagnés R., Laberge 1995 for predicting progeny variance
Genetic transformation of commercial Plant Cell, Agrobacterium producing and testing lines derived from
Bio-engineering technologies are now
S., Allard G., Khoudi breeding lines of alfalfa (Medicago Tissue and tumefaciens - genetic routinely used for the genetic
H., Castonguay Y., sativa ) Organ Culture transformation - improvement of many agricultural crops.
Zhang S., Michaud
377 Lapointe J.,Cho M.-J., 1999 Genetic transformation of commercial 42: 129-140
Plant Cell Medicago sativa - PCR However, breeding lines of Medicago
Barley ( Hordeum Genetic transformation using shoot
Koprek T., Yun R., cultivars of oat (Avena sativa L.) and Reports 18: vulgare L.) · Oat ( Avena meristematic cultures (SMCs) derived
Bregitzer P., Lemaux P. barley (Hordeum vulgare L.) using in 959-966 sativa L.) · Shoot from germinated seedlings is established
378 G.
Franklin C. I., Trieu T. Genetic transformation of green derived
1993 vitro shoot meristematic culturesbean Plant Cell Green bean - Phaseolus in commercial varieties of oat cv 'Garry'
meristematic culture · Kanamycin resistant callus was produced
N., Cassidy B. G., callus via Agrobacterium mediated DNA Reports 12 : vulgaris L - Genetic from leaf disc or hypocotyl expiants of
Dixon R. A., Nelson R. transfer 74-79 transformation - Stable green bean (Phaseolus vulgaris L.) when
379 S.
Kuchuk N., 1990 Genetic transformation of Medicago Plant Cell integration - chalcone
Medicago, cultured on a defined medium containing
Shoot and leaf segments of a non-
Komarnitski I., species by Agrobacterium tumefaciens Reports 8: Agrobacterium regenerable Medicago sativa L. genotype
Shakhovsky A., Gleba and electroporation of protoplasts 660-663 tumefaciens, were cocultivated with the shooty mutant
380 Y.
Guerche P., Jouanin L., 1987 Genetic transformation of oilseed rape Molecular and electroporation of
Brassica napus - of Agrobacterium tumefaciens carrying
transformed repeseed (Brassica napus )
Tepfer D., Pelletier G. (Brassica napus ) by the Ri T-DNA of General Agrobacterium roots were obtained by in vitro inoculation
Agrobacterium rhizogenes and analysis Genetics 206: rhizogenes - Genetic of excised stem segments with
of inheritance of the transformed 382-386 transformation - Genetic Agrobacterium rhizogenes. Axenic root
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
381 Lecardonnel A., Prévost 1999 Genetic transformation of potato with Molecular transgenic potato; Little is known about the effect of
G., Beaujean A., nptII-gus marker genes enhances foliage Breeding 5: Colorado potato beetle; transgenic plants containing commonly
Sangwan R. S., consumption by Colorado potato beetle 441-451 marker gene; foliage used marker genes, such as aph(3)II (nptII
Yamada T., Forster S.
382 Sangwan-Norreel B.J. 2005 larvae and molecular breeding in
Genetics Grassland consumption
Lolium, Festuce, encoding neomycinphosphotransferase)
Perennial ryegrass (Lolium perenne ) and
W., Humphreys M. W., Lolium/Festuca grass species complex Science Molecular breeding Italian ryegrass (L. multiflorum) are
Takamizo T. 51: 89-106 regarded as ideal grass species for use as
383 Drossou A., Katsiotis 2004 Genome and species relationships in TAG Avena, Genome, species, animal forage in temperate grassland
Species and genome relationships among
A., Leggett J. M., genus Avena based on RAPD and AFLP Theoretical relationship, RAPD, 11 diploid (A and C genomes), five
Loukas M.,Tsakas S. molecular markers and Applied AFLP tetraploid (AB and AC genomes) and two
384 Chen X. M., Line R. F., 1998 Genome scanning for resistance-gene Genetics 109:
Theoretical Candidate genes - hexaploid (ACD genome) Avena taxa
Genes cloned from diverse plants for
Leung H. analogs in rice, barley, and wheat by and Applied Disease resistance genes - resistance to different pathogens have
high-resolution electrophoresis Genetics 97: Germplasm diversity - sequence similarities in domains
385 Berrios E.F., Sarrafi A., 2000 Genotypic variation and chromosomal 345-355
Theoretical Host-pathogen
AFLP - Recombinant presumably involved in pathogen to
The present study was conducted
Fabre F., Alibert G., location of QTLs for somatic and Applied inbred lines - Somatic identify the genetic factors controlling
Gentzbittel L. embryogenesis revealed by epidermal Genetics 101: embryogenesis - somatic embryogenesis in the sunflower.
386 Campion B., Bohanec 1995 Gynogenic lines of onion (Allium cepa 1307-1312
layers culture of recombinant inbred Theoretical Sunflower - QTL Haploid induction via of embryogenic
Gynogenesis - Isozyme - Two traits, the numbergynogenesis offers
B., Javornik B. L.): evidence of their homozygosity and Applied RAPD - Agronomic the possibility of using doubled haploid
Genetics 91: evaluation - (DH) inbred lines in onion breeding. A
387 Snape J. W. 1998 Golden calves or white elephants? 598-602
Euphytica Wheat, biotechnologies, The 1990s have originated from the in
Gametoclonal variation - first DH line thatseen an acceleration open-
Biotechnologies for wheat improvement 100: 207-217 improvement,molecular the development of new biotechnologies
marker systems which can increase the efficiency of wheat
388 Maluszynski M., 2001 Heterosis in crop mutant crosses and Euphytica Heterosis appearing in crosses novel
mutant heterosis - barley - breeding by providing new andbetween
Szarejko I., Barriga P., production of high yielding lines using 120: 387-398 deleterious mutations - mutants derived from the same parent
Balcerzyk A. doubled haploid systems semidwarfness - doubled variety and crosses of mutants with parent
389 Tanksley D., Ganal J. 1992 Tomato, - anther
High Density Molecular Linkage Maps Genetics 132: haploids Potato, culture - varieties has been observed by many
High density molecular linkage maps,
V., Prince J. P., De- of the Tomato and Potato Genomes 1141-1160 geneomes, molecular comprised of more than 1000 markers
Vicente M. C., linkage maps with an average spacing between markers
390 Bonierbale M. W.,R. P.
Bush A. L., Wise 1998 High-resolution mapping adjacent to the Molecular bacterial artificial of approximately 1.2 cM (ca. 900 kb), of
The D526-derived BC1F2 population
Pc71 crown-rust resistance locus in Breeding 4: 13- chromosome (BAC) - hexaploid oat segregates for resistance to
hexaploid oat 21 Gramineae - oat crown crown rust isolate 345. A mapping
rust - Puccinia coronata - population consisting of 440 F2
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
391 Ahn S., Anderson J. A., 1993 Homoeologous relationships of rice, Molecular and Comparative maps - A set of cDNA clones, which had
Sorrells M. E., wheat and maize chromosomes General Dysploidy decrease - previously been mapped onto wheat
Tanksley S. D. Genetics 241: Translocation chromosomes, was genetically mapped
392 Kolb F. L., Baib G. H., 2001 Host Plant Resistance Genes for 483-490
Crop Science Wheat, barley, onto the chromosomes of rice. The by
Fusarium head blight (FHB), caused
Muehlbauerc G. J., Fusarium Head Blight 41:611-619 Resistance Genes, Fusarium graminearum Schwabe
Andersonc J. A., Fusarium Head Blight [teleomorph Gibberella zeae (Schwein.)],
Sledge K. K., Bouton J.
393 Smithc M. P., Fedakd G. 2002 Identification and Confirmation of Crop Sci. Medicago sativa, or scab, causes severeto liming is in yield
1986). An alternative reductions the
H., Dall‘Agnoll M., Aluminum Tolerance QTL in Diploid 42:1121–1128 Aluminum Tolerance, breeding of plants The acid, aluminum
Parrott W. A., Kochert Medicago sativa subsp. Coerulea QTL (Al) toxic soils found throughout the USA
394 G.
Schachermayr G., 1994 Identification and localization of Theoretical Leaf rust, RAPD, RFLP - are
Near-isogenic lines (NILs) for the leaf rust
Siedler H., Gale M. D., molecular markers linked to the Lr9 leaf and Applied Triticum aestivum, resistance gene Lr9 were screened for
Winzeler H., Winzeler rust resistance gene of wheat Genetics Triticum spelta polymorphisms at the molecular level.
Mago R., B.
395 M., KellerSpielmeyer 2002 Identification and mapping of molecular 88:110-115
Theoretical 1RS, AFLP, Gabo RAPD (random amplified polymorphic
The short arm of rye (Secale cereale)
W., Lawrence G., markers linked to rust resistance genes and Applied 1BL·1RS, Gabo chromosome 1 has been widely used in
Lagudah E., Ellis J., located on chromosome 1RS of rye using Genetics 104, 1DL·1RS, Imperial rye, breeding programs to incorporate new
396 Pryor A. Henry R. J.
Holton., 2002 wheat-rye translocation lines
Identification and mapping of Molecular Expressed Resistance
Petkus rye,sequence tag - disease resistance genes into wheat. Using
The growing availability of EST
polymorphic SSR markers from Breeding 9: 63- Marker - Microsatellite - sequences from a range of crop
expressed gene sequences of barley and 71 Simple sequence repeat plantsprovides a potentially valuable
397 Cherukuri D. P., Gupta 2003 wheat
Identification of a molecular marker Plant Breeding Agropyron elongatum, source ofrust resistance gene Lr19,
The leaf new DNA markers. We have
S. K., Charpe A., Koul linked to an Agropyron elongatum- 122 (3): wheat, Lr19, leaf rust transferred from Agropyron elongatum
S., Prabhu K. V., Singh derived gene Lr19 for leaf rust resistance 204–208. into wheat (Triticum aestivum L.) imparts
Yu K., Pauls M. R.,
398 R. B., Haq Q.K. P. 1993 in wheat
Identification of a RAPD marker Plant The current all pathotypes of leaf rust
alfalfa - linked random resistance tostudy was conducted to
associated with somatic embryogenesis Molecular amplified polymorphic identify random amplified polymorphic
in alfalfa Biology 22: DNA marker - somatic DNA (RAPD) markers linked to genes
399 Penner G. A., Chong J., 1993 Identification of a RAPD marker linked 269-277
Theoretical embryogenesis
Polymerase chain controlling somatic embryogenesis in
The feasibility of identifying molecular
Lévesque-Lemay M., to the oat stem rust gene Pg3 and Applied reaction - Disease markers linked to disease resistance genes
Molnar S. J., Fedak G. Genetics 85: resistance loci - Oat in oats was investigated utilizing random
400 Naik S., Gill K. S., 1998 Identification of a STS marker linked to 702-705
Theoretical RAPD RAPD primers
DNA - - STS marker - - primers in conjunction with polymerase
A sequence-tagged-site (STS) marker is
Prakasa Rao V. S., the Aegilops speltoides-derived leaf rust and Applied Leaf rust resistance gene - reported linked to Lr28, a leaf rust
Gupta V. S., Tamhankar resistance gene Lr28 in wheat Genetics Lr28 - Wheat resistance gene in wheat. RAPD (random
S. A., Pujar S., Gill B. 97:535-540 amplified polymorphic DNA) analysis of
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
401 Hartl L., Mohler V., 1999 Identification of AFLP markers closely Genome 42: Triticum aestivum, A total of 7654 DNA fragments were
Zeller F. J., Hsam S. L. linked to the powdery mildew resistance 322–329 powdery mildew, disease screened for linkage to wheat powdery
K., Schweizer G. genes Pm1c and Pm4a in common wheat resistance, AFLP, bulked mildew resistance gene Pm1c
402 Stuber C. W., Lincoln 1992 (Triticum aestivum L.) Factors
Identification of Genetic Genetics 132: segregant analysis
maize, genetic factors, employing molecular markers to identify
The use of fluorescently based AFLP
S. E., Wolf D. W., Contributing to Heterosis in a Hybrid 823-839 hybrid, imbred lines quantitative trait loci (QTLs) affecting
Helentjaris T., Lander From Two Elite Maize Inbred Lines agriculturally important traits has become
403 E. S.
Ivic-Haymesa S.D., Using Molecularhighly regenerative
Identification of Markers In Vitro Beta vulgaris, a key approach in plant genetics-both for
Development of an efficient
Smigockia A.C. plants with sugar beet (Beta vulgaris L.) Cellular and embryogenesis, genetic transformation method for recalcitrant
breeding lines for molecular breeding Developmenta variability, regeneration crops such as sugar beet (Beta vulgaris L.)
404 Chen Y., Hausner G., 1998 Identification of microspore-derived l Biology -
Plant Cell capacity
Anther culture · Flax · The microspore origin of of germplasm
depends on identification anther-culture-
Kenaschuk E., plants in anther culture of flax (Linum Reports 18: ISSRs · Linum derived plants of flax was determined
Procunier D., Dribnenki usitatissimum L.) using molecular 44-48 usitatissimum · RAPDs using inter-simple sequence repeat (ISSR)
405 P., Penner G. C. A.,
Liub S., Griffey 2001 markers
Identification of Molecular Markers Crop Science Wheat, powdery and randomly amplified polymorphic
Powdery mildew, caused by Blumeria
Maroofa M. A. S. Associated with Adult Plant Resistance 41:1268-1275 mildewm adult plant graminis (DC.) E.O. Speer f. sp. tritici Em.
to Powdery Mildew in Common Wheat ressitance, molecular Marchal (syn. Erysiphe graminis f. sp.
406 Wight C. P., Kibite S., 2006 Cultivar Massey molecular markers for
Identification of TAG The degree of aluminium diseases of
markers oat, aluminum, tritici), is one of the majortolerance varies
Diploid
Tinker N. A., Molnar S. aluminium tolerance in diploid oat Theoretical tolerence, molecular widely across cereal species, with oats
J. through comparative mapping and QTL and Applied markers (Avena spp.) being among the most
407 Robert O., Abelard C., 1999 analysis
Identification of molecular markers for Genetics 112: DNA markers, yellow
Molecular The Yr17 gene, which of this study was
tolerant. The objective is present in manyto
Dedryver F. the detection of the yellow rust Breeding rust resistance, Yr17 European wheat cultivars, displays yellow
resistance gene Yr17 in wheat 5:167-175 rust resistance at the seedling stage. The
408 Lin J. J., Kuo J., Ma J., Identification of molecular markers in Plant DNA fingerprinting - gene introducedDNAchromosome 2A
Three different into mapping
Saunders J. A., Beard H. soybean comparing RFLP, RAPD and Molecular Glycine max - PCR techniques—RFLP, RAPD and
S., MacDonald M. H., AFLP DNA mapping techniques Biology AFLP—were used on identical soybean
409 Cenci A., D'Ovidio G.
Kenworthy W., UdeR., 1999 Identification of molecular markers Reporter
Theoretical Triticum aestivum · germplasm to compare their ability to
RFLP, RAPD, STS and DDRT-PCR
Tanzarella O. A., linked to Pm13, an Aegilops longissima and Applied Aegilops longissima · techniques were applied to find molecular
Ceoloni C., Porceddu E. gene conferring resistance to powdery Genetics 98: Erisiphe graminis f.sp. markers linked to Pm13, an Aegilops
410 Schachermayr G. M., 1995 mildew in wheat molecular markers
Identification of 448-454
Theoretical Leaf · Resistance gene · The objective of this study resistance to
triticirust, RFLP, RAPD, longissima gene conferring was to identify
Messmer M. M., linked to the Agropyron elongatum- and Applied Wheat, Agropyron molecular markers linked to the wheat leaf
Feuillet C., Winzeler derived leaf rust resistance gene Lr24 in Genetics 90: elongatum rust resistance gene Lr24 derived from
H., Winzeler M., Keller wheat 982-990 Agropyron elongatum (3DL/3Ag
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
411 Sun G. L., Fahima T., 1997 Identification of molecular markers Theoretical Gene mapping - RAPD, The Yr15 gene of wheat confers resistance
Korol A. B, Turpeinen linked to the Yr15 stripe rust resistance and Applied RFLP, Stripe rust, to the stripe rust pathogen Puccinia
T., Grama A., Ronin Y. gene of wheat originated in wild emmer Genetics Triticum dicoccoides, striiformis West., which is one of the most
Endera E.
412 I., NevoM., Kellyb J. D. 2005 wheat, Triticum dicoccoides
Identification of QTL Associated with 95:622-628
Crop Sci Triticum durum White
Common Bean, devastating diseases by wheat throughout
White mold, caused of the necrotrophic
White Mold Resistance in Common 45:2482-2490 Mold Resistance, QTL fungus Sclerotinia sclerotiorum (Lib.) de
Bean Bary, is a serious disease of common bean
413 Xiao J., Li J., Yuan L., 1996 Identification of QTLs affecting traits of TAG Rice - Subspecies - To detect QTLs controlling use of
(Phaseolus vulgaris L.). Thetraitsof
Tanksley S. D. agronomic importance in a recombinant Theoretical Recombinant inbred agronomic importance in rice, two elite
inbred population derived from a and Applied population - Molecular homozygous lines 9024 and LH422, which
414 Jin H., Domier L. L., 1998 subspecific rice cross
Identification of Quantitative Loci for Genetics 92:
Phytopatholog markers - QTLs
Oat, QTL, tolerance, represent the indicalinked to quantitative
Molecular markers and japonica
Kolb F. L., Brown C. Tolerance to Barley Yellow Dwarf Virus y 88: 410-415 BYDV trait loci conditioning tolerance to barley
M. in Oat yellow dwarf virus (BYDV) were
415 Zhu S., Kaeppler H. F. 2003 Identification of Quantitative Trait Loci Crop Science Oat, resistance, QTL, identified in caused by the fungus Puccinia
Crown rust, oat (Avena sativa) using
for Resistance to Crown Rust in Oat Line 43:358-366 crown rust coronata Cda. f. sp. avenae Eriksson, is the
MAM17-5 most damaging disease of oat (Avena
416 Beavis W.D., Smith 1994 Identification of quantitative trait loci Crop science QTL, maize, topcross, sativabreeders have an interest in the
Plant L.). Breeding for resistance to
O.S., Grant D., Fincher using a small sample of topcrossed and 34: 882-896 per se evaluation identification of genomic regions
R. F[4] progeny from maize associated with the expression of
417 Araujo L.G., Prabhu 2002 IDENTIFICATION OF RAPD Fitopatol. 27 molecular markers, quantitative traits because they recognize
The gene Pi-ar confers resistance to
A.S., Filippi M. C. MARKER LINKED TO BLAST disease resistance, Pyricularia grisea race IB-45 in a
RESISTANCE GENE IN A somaclonal variation, somaclone derived from immature
418 Rokka V-M., Xu Y-S., Identification of somatic CULTIVAR
1994 SOMACLONE OF RICEhybrids of Euphytica 80: Pyricularia grisea subsp
Erwinia carotovora Symmetric the susceptible were produced
panicles of somatic hybridsrice (Oryza
Kankila J., Kuusela A., dihaploid Solanum tuberosum lines and 207-217 - atroseptica - by electrofusion of protoplasts of two
Pulli S., Pehu E. S. brevidens by species specific RAPD Phytophthora infestans - dihaploid tuber-bearing potato (Solanum
419 Armstrong C. L., Improved tissue culture of disease
1992 patterns and assessment response of an Theoretical PVY - RAPD - Solanum
Zea mays L. - Restriction tuberosum L.) lines and Solanum
The frequency of initiation of friable,
Romero-Severson J., elite maize inbred through backcross and Applied fragment length embryogenic callus from immature
Hodges T. K. breeding, and identification of Genetics 84: polymorphisms - Tissue embryos of the elite maize inbred line B73
420 Friedt W., Bickert C., 1995 chromosomal regions important for
In vitro breeding of high-linolenic, 755-762 Linum - Plant
Plant Breeding culture usitatissimum,In was increasedof a breeding programme for
In the course dramatically by
Schaub H. doubled-haploid lines of linseed (Linum 114: 322-326 vitro breeding, high-linolenic-acid linseed (oilflax, Linum
usitatissimum L.) via androgenesis androgenesis usitatissimum L.) doubled-haploid lines
(DH-lines) of three F1 hybrids were
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
421 Liu S., Wang H., 2005 In vitro mutation and selection of Plant Cell Brassica napus - Haploid This paper describes a new protocol to
Zhang J., Fitt B. D. L., Reports 24:
doubled-haploid Brassica napus lines somatic mutation and develop doubled-haploid (DH) Brassica
Xu Z., Evans N., Liu 133-144
with improved resistance to Sclerotinia selection - Resistance - napus lines with improved resistance to
Ozias-Akins Guo X.
422 Y.,Yang W.,P., Vasil I. 1988 sclerotiorum
In vitro regeneration and genetic Physiologia Sclerotinia sclerotiorum -
Grasses, invitro, Sclerotinia sclerotiorum. In this protocol,
Regeneration of plants from cultured cells
K. manipulation of grasses Plantarum 73: regeneration is an important and essential component of
565-569 plant biotechnology. Advances in the
423 Takahashi W., Fujimori 2005 Increased resistance to crown rust Plant Cell Disease resistance - We introduced the rice cultured (Cht-2;
recovery of plants fromchitinase cells and
M., Miura Y., Komatsu disease in transgenic Italian ryegrass Reports 23: Puccinia coronata - RCC2) gene into calli of Italian ryegrass
T., Nishizawa Y., Hibi (Lolium multiflorum Lam.) expressing 811-818 Particle bombardment - (Lolium multiflorum Lam.), with a
T., Takamizo T.
424 Ahloowalia B.S., 2001 the rice chitinase gene new paradigm in Euphytica
Induced mutations – A Pathogenesis-related in
induced mutations - The use of phosphotransferase (HPT)
hygromycinionizing radiation, such as X-
Maluszynski M. plant breeding 118: 167-173 vitro culture - molecular rays, gamma rays and neutrons and
markers - developmental chemical mutagens for inducing variation,
425 Christou P., Swain W. 1989 Inheritance and Expression of Foreign PNAS 86 : mutants Foreign
Syoybean, is well established. Inducedwere
DNA-coated gold particles mutations
F., Yang N-S., McCabe Genes in Transgenic Soybean Plants 7500-7504 Genes, Transgenic introduced into meristems of immature
D.E. Soybean soybean seeds using electric discharge
426 Puonti-Kaerlas J., 1992 Inheritance of a bacterial hygromycin Theoretical Transformation - Pisum particle acceleration to produce transgenic
An analysis of the progeny of primary
Eriksson T., Engström phosphotransferase gene in the progeny and Applied sativum - transgenic pea plants in terms of
P. of primary transgenic pea plants Genetics 84: Agrobacterium transmission of the transferred DNA,
427 Zhang F. L., Takahata 2001 Inheritance of microspore embryogenic 443-450
Theoretical tumefaciens - -
Diallel analysis fertility and of microspore embryogenic
Inheritance morphology is presented. A
Y. ability in Brassica crops and Applied Heritability - Microspore ability in oilseed rape (Brassica napus L.)
Genetics 103: embryogenesis - Oilseed and Chinese cabbage (Brassica
428 Amberger L. A., 1992 254-258
Inheritance of two independent isozyme Theoretical rape (Brassicanapus L.) -
Somaclonal variation - campestris L. ssp.max (L.) Merr.] plants
Soybean [Glycine pekinensis) was
Shoemaker R. C., variants in soybean plants derived from and Applied Tissue culture - Glycine were regenerated via somatic
Palmer R. G. tissue culture Genetics 84: max (L.) Merr. - embryogenesis from nine soybean
429 Polzin K. M., Lohnes 1994 The Journal of Isozymes Molecular
Integration of Rps2, Rmd, and Rj2 Into 600-607 Soybean, cultivars. Our objective was to identify
To correlate the classical soybean linkage
D. G., Nickell C. D., Linkage Group J of the Soybean Heredity Map, Linkage Group map with the USDA-ARS molecular map,
Shoemaker R. C. Molecular Map 85(4): 300-303 genes from the classical map must be
430 Pelletier G., Primard Intergeneric cytoplasmic hybridization in Molecular and Rapeseed, protoplasts, located relative to molecular markers. The
Rapeseed plants have been regenerated
C., Vedel F., Chetrit cruciferae by protoplast fusion General cytoplasmic after fusion between protoplasts bearing
P., Remy R., M. Genetics hybridization cytoplasms of different genera. Cybrids
Renard. combine, in a first experiment Brassica
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
431 Hu Q., Hansen L., 2002 Intergeneric hybrids between Brassica Theoretical Brassica napus, Fatty Protoplast fusions between Brassica napus
Laursen J., Dixelius C., napus and Orychophragmus violaceus and Applied acid composition, Male and Orychophragmus violaceus for
Andersen S. containing traits of agronomic Genetics 105: sterility, transfer of valuable traits to oilseed rape
432 Crossa J., Vargas M., 1999 importance for oilseed×rape breeding
Interpreting genotype environment 834-840
Theoretical Orychophragmus
Biplot · Factorial resulted in 257 somatic hybrid plants.
An understanding of the genetic and
Van Eeuwijk F. A., interaction in tropical maize using linked and Applied regression · Genetic environmental basis of
Jiang C., Edmeades G. molecular markers and environmental Genetics 99: marker · genotype2environment interaction (GEI)
433 O., Hoisington D. M.
Muñoza L. C., Blair 2004 covariables in Common Bean x Tepary
Introgression 611-625
Crop Sci. Genotype×environment is of fundamental importance in plant
Common Bean , Tepary Congruity and recurrent backcross
W., Duquea M. C, Bean Interspecific Congruity-Backcross 44:637-645 Bean, Introgression, interspecific hybrids between common
Tohmea J., Rocab W. Lines as Measured by AFLP Markers AFLP Markers bean (Phaseolus vulgaris L.) and tepary
434 Pestsova E., Ganal 2000 Isolation and mapping of microsatellite Genome 43: Aegilops tauschii, wheat, bean (P. acutifolius A. Gray) were
Abstract: The potential of Aegilops
M.W, Röder M.S. markers 689–697 molecular markers, tauschii, the diploid progenitor of the D
specific for the D genome of bread wheat genetic map, simple genome of wheat, as a source of
435 Wu S-C., Bögre L., 1988 Isolation of an alfalfa histone H3 gene: Plant sequence repeats.
codon usage - gene microsatellite gene wasfor hexaploid bread
A histone H3 markers isolated from a
Vincze É, Kiss G. B., structure and expression Molecular expression - histone H3 dicotyledonous plant, alfalfa (Medicago
Dudits D. Biology 11: gene - Medicago sativa - sativa). The sequence analysis of this gene
436 Doan D. N. P., 1996 Isolation of molecular markers from the 41-649
Plant barley - embryos
somatic endosperm The cereal obvious GC preference in
revealed noendosperm develops from aits
Linnestad C., Olsen O- barley endosperm coenocyte and the Molecular coenocyte - differential coenocyte to a cellular storage organ
A. surrounding nucellus cell layers Biology 31: screening - modified through formation of nucleo-cytoplasmic
437 Milbourne D., Meyer 1998 Isolation, characterisation and mapping 877-886 and
Molecular aleurone cells - nucellus- domains and cell wall deposition in the
Simple sequence repeat Solanum tuberosum L. DNA sequences
R. C., Collins A. J., of simple sequence repeat loci in potato General Linkage map - Single- containing simple sequence repeat (SSR)
Ramsay L. D., Genetics 259: strand hybridisation - motifs were extracted from the EMBL
Fransz P. C., Waugh R.
438 Gebhardt F., De Ruijter 1989 Isozymes as biochemical and 233-245
Plant Cell Triplex affinity capture - database,analysesand selectively enriched
Zea mays, embryogenic Isozyme cDNA were carried out on
N. C. A., Schel J. H. N. cytochemical markers in embryogenic Reports 8: 67- callus cultures, protein extracts of non-embryogenic and
callus cultures of maize (Zea mays L.) 70 embryogenic callus fromZea mays L.,
439 Tai G. C. C., Seabrook 2000 Linkage analysis of anther-derived Theoretical Gene mapping - Potato - using polyacrylamide gel electrophoresis.
Monoploids can be obtained from several
J. E. A., A. Aziz A. N. monoploids showing distorted and Applied Segregation ratio - diploid plant species by anther culture.
segregation of molecular markers Genetics 101: Solanum tuberosum L. Mapping of molecular markers using
440 Sourdille P., Perretant 1996 Linkage between RFLP markers and 126-130
Theoretical Kernel hardness - Wheat - monoploids is greatly facilitated by the
A molecular-marker linkage map of wheat
M. R., Charmet G., genes affecting kernel hardness in wheat and Applied RFLP - QTL - (Triticum aestivum L. em. Thell) provides
Leroy P, Gautier M. F., Genetics 93: Puroindoline a powerful tool for identifying genomic
Joudrier P., Nelson J. 580-586 regions influencing breadmaking quality.
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
441 Sourdille P., Charmet 1998 Linkage Between RFLP Molecular Hereditas 128: wheat, dwarfing genes, Identifying genotypes carrying the
G., Trottet M., Tixier Markers and the Dwarfing Genes Rht-B1 41-46, isozymes, markers dwarfing genes Rht-B1 and Rht-D1 would
M. H., Boeuf C., and Rht-D1 in Wheat be of great interest for wheat (Triticum
442 Barloy N. D., Bernard
Larson S. R., Young 1998 Linkage mapping of two mutations that Theoretical Barley - Mutations - aestivum L. em Thell) breeding. Two
This study describes the inheritance and
K. A., Cook A., Blake reduce phytic acid content of barley and Applied Phytic acid linkage map positions of two low phytic
T. K., Raboy V. grain Genetics 97 acid barley (Hordeum vulgare ) mutations,
443 O'DONOUGHUE L. S., 1996 Localization of stem rust resistance Phytopatholog oat, stem rust, resistance lpa1-1 and markersthat dramatically reduce
Molecular lpa2-1, have been identified in
CHONG J., WIGHT C. genes and associated molecular markers y 86: 719-727 genes, molecular markers cultivated oat for the Pg9 and Pg13 loci
P., FEDAK G., in cultivated oat conferring resistance to different races of
Giese H., S. J.
444 MOLNARHolm-Jensen 1993 Localization of the Laevigatum powdery Theoretical Barley leaf stripe - the stem rust pathogen, Puccinia graminis
The powdery mildew disease resistance
A. G., Jensen H. P., mildew resistance gene to barley and Applied Erysiphe graminis f.sp gene Ml(La) was found to belong to a
Jensen J. chromosome 2 by the use of RFLP Genetics 85: hordei - Heterodera locus on barely chromosome 2. We
445 Hayano-Saito Y., Tsuji 1998 markers
Localization of the rice stripe disease 897-900
TAG avena sativa - Stripe -
Oryza - Linkage map suggest that this locus be designated
We used graphical genotyping and linkage
T., Fujii K., Saito K., resistance gene, Stv-bi, by graphical Theoretical resistance gene - Genetic analyses with molecular markers to
Iwasaki M., Saito A. genotyping and linkage analyses with and Applied map - Molecular markers determine the chromosomal location of the
446 Champoux M. C., Locating markers
1995 moleculargenes associated with root Genetics 96:
Theoretical Drought, Rice - QTL rice stripe disease resistance gene, Stv-b i .
This research was undertaken to identify
Wang G., Sarkarung S., morphology and drought avoidance in and Applied analysis - Root and map quantitative trait loci (QTLs)
Mackill D. J., O'Toole rice via linkage to molecular markers Genetics 90: morphology - Molecular associated with five parameters of rice
447 J. C., Huang N., P.,
Sourdille P., Robe 1999 Location of Pm3g, a powdery mildew 969-981
Euphytica markers graminis -
Blumeria root morphology and to determine if these
A segregating population of doubled-
Tixier M., Doussinault resistance allele in wheat, by using a 110: 193-198 powdery mildew - QTL - haploid lines issued from the cross
G., Pavoine M., monosomic analysis and by identifying RFLPs - Triticum between the wheat (Triticum aestivum L.
Huanga M.
448 Bernard L., Brooksa S. Map-Based Cloning markers
2003 associated molecularof Leaf Rust leaf rust, - wheat
Genetics 164: aestivum wheat, Lr21, em. report the map-based cloning of the
We Thell) cultivars Courtot, resistant to
A., Lia W., Fellersb J. Resistance Gene Lr21 From the Large 655-664 molecular cloning leaf rust resistance gene Lr21, previously
P., Tricka H. N., Gilla and Polyploid Genome of Bread Wheat mapped to a gene-rich region at the distal
449 B. S. C., Travella S.,
Feuillet 2003 Map-based isolation of the leaf rust PNAS wheat, genome, leaf rust, More chromosome arm 1DS of (Lr)
end ofthan 50 leaf rust resistancebread
Stein N., Albar L., disease resistance gene Lr10 from the 100:15253- Lr10, genes against the fungal pathogen
Nublat A., Keller B. hexaploid wheat (Triticum aestivum L.) 15258 Puccinia triticina have been identified in
450 Nelso J.C., Sigh R.P., 1997 genome genes conferring and
Mapping Crop science wheat, leaf rust the wheat caused by Puccinia recondita
Leaf rust, gene pool, and a large number
Autrique J.E., Sorrells suppressing leaf rust resistance in wheat 37:1928-1935 resistance, mapping Roberge ex Desmaz. f. sp. tritici Eriks. &
M.E. genes E. Henn., is a serious disease of wheat
(Triticum aestivum L.) worldwide. We
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
451 Hirata M. M., Fujimori 2007 Mapping of EST-derived CAPS markers Plant Breeding lolium multiflorum, New molecular markers derived from
M. in Italian ryegrass (Lolium multiflorum 126: 353-360 CAPS markers expressed sequence tag (EST) sequences
Lam.) were mapped on linkage maps of Italian
452 Hsam S.L. K., Mohler 2000 Mapping of powdery mildew and leaf Plant breeding wheat, translocation, ryegrass by a two-way pseudo-testcross
Powdery mildew and leaf rust resistance
V., Hartl L., Wenzel rust resistance genes on the wheat-rye 119: 87-89 powdery mildew genes on the 1RS arm of the T1BL.1RS
G., Zeller F.J. translocated chromosome T1BL.1RS translocated chromosome were mapped in
453 Parka O. S.,. Coyne D. 2001 using molecular and biochemicalto White
Mapping of QTL for Resistance Crop Science Common Bean, White relation to the Sec-1incitedand Sclerotinia
White mold (WM), locus by AFLP and
P., Steadmanb J. R., Mold Disease in Common Bean 41:1253-1262 Mold Disease, QTL, sclerotiorum (Lib.) de Bary, is a serious
Skrochc P. W. mapping disease of common bean (Phaseolus
454 Börner A., Schumann 2002 Mapping of quantitative trait loci Theoretical Agronomic traits, A set of L.). recombinant inbred lines of
vulgaris 114 However, plant breeders have
E., Fürste A., Cöster determining agronomic important and Applied Genetic mapping, QTL, the 'International Triticeae Mapping
H., Leithold B., Röder characters in hexaploid wheat (Triticum Genetics 105: Disease resistance, Initiative' mapping population was grown
455 M., Weber W. E.Y.,
Sacco F., Suárez 1998 aestivum of the leaf rust resistance gene 921-936 41: MorphologicalLr3 gene, during the seasons 1997, 1998,race 66 of
Mapping L.) Genome wheat, RFLP, traits, The Lr3 gene for resistance to 1999 and
Naranjo T. Lr3 686–690 chromosome 6B, C- Puccinia recondita present in hexaploid
on chromosome 6B of Sinvalocho MA banding. wheat cv. Sinvalocho MA
456 Mckenzie N., Dale P. J. 2004 wheat of transposable element
Mapping Theoretical To mapped on chromosome
Brassica oleracea, plant wasinvestigate the potential of6B, using
Dissociation inserts in Brassica oleracea and Applied regeneration, heterologous transposons as a gene-
following plant regeneration from Genetics 109: streptomycin selection, tagging system in broccoli (Brassica
457 Taguchi-Shiobara F., 1997 Mapping quantitative of loci associated Theoretical
streptomycin selectiontraitcallus 333-341 callus
Regeneration ability - oleracea var. trait loci we have introduced a
Quantitative italica), (QTL) controlling
Lin S. Y., Tanno K., with regeneration ability of seed callus in and Applied QTL - Rice - Oryza the regeneration ability of rice seed callus
Komatsuda T., Yano rice, Oryza sativa L. Genetics 95: sativa L. - Seed callus were detected using 245 RFLP markers
458 M., Sasaki T., Oka S.
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Molecular The dominant lines Gro1 confers on
and 98 BC1F5allele derived from two
J., Niewöhner J., map of the segment of potato General tuberosum - Nematode potato resistance to the root cyst nematode
Leister D., Salamini F., chromosome VII harbouring the Genetics 249: resistance - Map-based Globodera rostochiensis. The Gro1 locus
Ghislain C.
459 GebhardtM., Zhang D., 1999 nematode resistance gene Gro1
Marker-assisted sampling of the 82-90
Genetic cloning
core collection - has been mapped to chromosome Andean
The potato crop originated in the VII on
Fajardo D., Huamán Z., cultivated Andean potato Solanum Resources and germplasm - molecular highlands where numerous farmer's
Hijmans R. J. phureja collection using RAPD markers Crop marker - potato - RAPD - varieties and non-cultivated wild species
460 Barker D. G., Bianchi 1990 Medicago truncatula , a model plant for Evolution 46: Solanum phureja
Plant symbiotic nitrogen exist. An Andean potato collection is held
Medicago truncatula has all the
S., Blondon F., Dattée studying the molecular genetics of the Molecular fixation - legume - characteristics required for a concerted
Y., Duc G., Essad S., Rhizobium -legume symbiosis Biology Medicago truncatula analysis of nitrogen-fixing symbiosis
Flament P., Gallusci P., Reporter 8: 40- withRhizobium using the tools of
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461 McLean N.L., Nelke 1999 Meiotic Chromosome Pairing, Isozyme Annals of Trifolium pratenseL., red Red clover genotypes capable of
M., Nowak J., Wright Analyses and Ferritin Expression in a Botany 83: clover, ferritin, isozymes, regenerating plantletsin vitrofrom non-
J.M. Red Clover Mutant Capable of Somatic 315-323 meiosis, peroxidase, meristem-derived callus are rare. A
462 McCouch S. R., Chen 1997 Embryogenesis
Microsatellite marker development, Plant somatic embryogenesis
allelic diversity - previous study identified a tandemly
Microsatellites are simple, pair of near
X., Panaud O., mapping and applications in rice genetics Molecular microsatellite marker - repeated di- to tetra-nucleotide sequence
Temnykh S., Xu Y., and breeding Biology 35: 89- molecular mapping - motifs flanked by unique sequences. They
Suenaga K., Singh N.,
463 Cho Y. G., Huang R. P., 2003 Microsatellite Markers for Genes Phytopatholog polymerase chain
99 slow rusting, Triticum are valuable as genetic markers because
Huerta-Espino J., Lr34/Yr18 and Other Quantitative y 93:881-890. aestivum. Leaf rust and stripe rust, caused by
William H. M. Trait Loci for Leaf Rust and Stripe Rust Puccinia triticina and P. striiformis,
464 Peng J. H., Fahima T., 1999 Resistance in Bread Wheat stripe-rust
Microsatellite tagging of the Theoretical Genetic mapping · respectively, are important diseases of
Stripe rust caused by Puccinia striifomis
Röder M. S., Li Y. C., resistance gene YrH52 derived from wild and Applied Microsatellite marker · West. is one of the most devastating
Dahan A., Grama A., emmer wheat, Triticum dicoccoides, and Genetics Stripe-rust resistance · diseases relating to wheat production.
Hernández Korol A.
465 Ronin Y. I.,P., Dorado Microsatellites and crossover
2001 suggestive negative RFLP probes from 98:862-872
Theoretical Puccinia striiformis ·
Miscanthus · Wild emmerGramineae markers was
A survey of wheat, Triticum dicoccoides,
G., Laurie D. A., maize are efficient sources of molecular and Applied Microsatellite · RFLP · carried out with the aim of developing cost-
Martín A., Snape J. W. markers for the biomass energy Genetics 102: Maize · Biomass crop · effective methods for the molecular
466 Zhiponova M. K., 2006 Mitosis-Specific Promoter of the Alfalfa 616-622
Plant Diversity
Alfalfa, Mitosis-Specific analysis of Miscanthus species. Ten out of
Cyclin-dependent serine/threonine kinases
Pettkó-Szandtner A., Cyclin-Dependent Kinase Gene Physiology Promoter, Kinase Gene (CDKs) have pivotal roles in regulating
Stelkovics É., Neer Z., (Medsa;CDKB2;1) Is Activated by 140:693-703 the eukaryotic cell cycle. Plants possess a
Fedak S.,
467 BottkaG. Krenács T., Molecular and for integration of alien
1999 Wounding aids Ethylene in a Non-Cell Genome 42: Triticum aestivium, Abstract: Wide crosses in wheat have with
unique class of CDKs (B-type CDKs) now
chromatin through wide crosses 584–591 molecular markers, been performed for over 100 years. In that
disease resistance, gene time, approximately 100 genes
468 Guzy-Wróbelska, 2003 Molecular and agronomic evaluation of Plant Breeding introgression, haploid,
wheat, doubled Although transferred for numerous traits,
have beenmaize pollination (MP) and
Szarejko I. wheat doubled haploid lines obtained 122: 305-313 maize, pollination, anther culture (AC) are alternative
through maize pollination and anther anther culture techniques widely used for wheat doubled
469 Qureshi S. N., Saha S., 2004 culture methods and physiology EST- The Journal of Cotton, Molecular
Molecular biology haploidadvances in genomic technologies
Recent (DH) production, there is only
Kantety R. V., Jenkins SSR: A New Class of Genetic Markers Cotton biology, physiology, have
J. N. in Cotton Science Genetic Markers generated a large number of expressed
470 Zhu H., Briceño G., 1999 Molecular breeding for grain yield in 8:112–123
Theoretical Barley · Yield · Marker- sequence results from a breeding strategy
We report
Dovel R., Hayes P. M., barley: an evaluation of QTL effects in a and Applied assisted selection · QTL · designed to accumulate favorable QTL
Liu B. H., Liu C. T., spring barley cross Genetics 98: QTL×E alleles for grain yield identified in the
Ullrich S. E. 772-779 Steptoe2'Morex' (SM) barley germplasm.
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
471 Baird E., Cooper-Bland 1992 Molecular characterisation of inter and Molecular and Protoplasts - RAPDs - Protoplast fusion allows the transfer of
S., Waugh R., DeMaine intra-specific somatic hybrids of potato General Potato - Somatic hybrids - both mono- and polygenic traits between
M., Powell W. using randomly amplified polymorphic Genetics 233: Molecular markers species that are sexually incompatible.
472 Liu Z., Sun Q., Ni Z., 2002 DNA (RAPD) markers
Molecular characterization of a novel 469-475
Euphytica Powdery mildew caused by relevance
Erysiphe graminis f. sp. This approach has particularErysiphe for
Nevo E., Yang T. powdery mildew resistance gene Pm30 123: 21-29 tritici - Blumeria graminis f. sp. tritici is one of the most
in wheat originating from wild emmer graminis - Triticum important wheat diseases in many regions
473 Lukaszewski A .J., 1998 Molecular characterization of two Crop Sci dicoccoides -
Triticum speltoides, of theworld. A powdery mildew resistance
Resistance genes for leaf rust (Puccinia
Echaide M., Antonelli Triticum speltoides interstitial 38:1655-1660 Molecular recondita Rob. ex Desm.) and greenbug
E.F., Porter D.R. translocations carrying leaf rust and characterization, leaf rust (Schizaphis graminum Rondani) were
474 Binh L. T., Oono K. Molecular Cloning genes
1992 greenbug resistanceand Characterization Plant Polyadenylated chromosome 7S of
Rice, molecular cloning, transferred fromRNA was isolated and a
of Genes Related to Chilling Tolerance Physiology chiling tolerance cDNA library constructed from seedlings
in Rice 1 99:1146-1150 of a chilling-tolerant rice cultivar (Oryza
475 Feuillet C., 1997 Molecular cloning of a new receptor-like The Plant Wheat, leaf rust, sativa than 100 resistance cv Nipponbare).
More L. subsp. Japonica genes against
Schachermayr G., kinase gene encoded at the Lr10 disease Journal 11: 45- resistance locus, wheat rust pathogens have been described
Keller B. resistance locus of wheat 52 molecular cloning in wheat and its relatives. Although many
476 Spano A. J., He Z., 1992 Molecular cloning, nuclear gene Plant light-dependent pchlide of them have been extensively used in
Complementary DNA clones and a
Michel H., Hunt D. F., structure, and developmental expression Molecular reductase - lpcr - Pisum corresponding nuclear gene (lpcr)
Timko M. P. of NADPH: protochlorophyllide Biology 18: sativum - chlorophyll encoding the NADPH-dependent
477 Isenegger D. A., Taylor 2003 oxidoreductase in pea (Pisum sativum
Molecular detection of a bacterial 967-972
Plant Cell synthesis - marker,
Molecular chloroplast protochlorophyllide oxidoreductase
An aberrant random amplified
P. W. J., Mullins K., contaminant Bacillus pumilus in Reports 21: Diagnostic tool, polymorphic DNA (RAPD) marker in
McGregor, Barlass M., symptomless potato plant tissue cultures 814-820 Microbial contaminant genomic DNA of tissue culture plantlets
478 Hutchinson J. F. Rines
Milach S. C. K., 1997 Molecular genetic mapping of dwarfing TAG Avena sativa - Dwarfing was frequently observed during a
Restriction fragment length polymorphism
H. W., Phillips R. L. genes in oat Theoretical genes - RFLP - RFLP (RFLP) analysis provides a valuable tool
and Applied mapping - Bulked for characterizing and understanding
479 Hartl L., Weiss 1995 Molecular identification of powdery Genetics 95: Segregant Analysis-
Theoretical Mildew resistance relationships among genes for useful traits
RFLP markers for the wheat powdery
H.,Stephan U., Zeller mildew resistance genes in common and Applied Triticum aestivum Near- mildew resistance genes Pm1 and Pm2
F. J., Jahoor A. wheat (Triticum aestivum L.) Genetics 90: isogenic lines - Bulked were tagged by means of near-isogenic
480 Ma J., Zhou R., Dong 2001 Molecular mapping and detection of the 601-606
Euphytica Triticum analysis L. - Yellow rust (stripe rust), is located
segregantturgidum RFLP lines. The probe Whs178 caused by 3 cM
Y., Wang L., Wang X., yellow rust resistance gene Yr26 in 120: 219-226 wheat - yellow rust Puccinia striiformis Westend f. sp. tritici,
Jis J. wheat transferred from Triticum resistance - Yr26 is one of the most devastating diseases of
turgidum L. using microsatellite markers wheat throughout the world. Wheat-
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
481 Jin W., Palmer R.G., 1998 Molecular mapping of a male-sterile Crop Sci Soybean, Molecular A newly identified genic male-sterile
Horner H.T., Shoemaker gene in soybean 38:1681-1685 mapping, male-sterility mutant in soybean [Glycine max (L.)
R. C. Merr.] has high seed set under natural
482 Ivandic V., Walther U., 1998 Molecular mapping of a new gene in Theoretical CAPS · Disease field conditions and is potentially useful in
A dominant gene conferring resistance to
Graner A. wild barley conferring complete and Applied resistance · Hordeum all known races of Puccinia hordei Otth
resistance to leaf rust (Puccinia horde i Genetics 97: vulgare ssp. spontaneum was identified in two accessions of
483 Chetelat R. T., Meglic 2000 Otth)
Molecular mapping of chromosome 1235-1239
TAG · RFLP-mapping · STS-
Comparative mapping The wild nightshade spontaneum. Using
Hordeum vulgare ssp.Solanum
V. segments introgressed from Solanum Theoretical Homoeologous lycopersicoides (accessionLA2951) was
lycopersicoides into cultivated tomato ( and Applied recombination - backcrossed to the cultivated tomato
484 Shaha M.M., Gilla 1999 Lycopersicon esculentum ) for
Molecular Mapping of Loci Genetics 100:
Crop Sci Segregation distortion -
wheat, molecular Chromosome esculentum cv ‘VF36‘),
(Lycopersicon3A of bread wheat (Triticum
K.S., Baenzigera P.S., Agronomic Traits on Chromosome 3A of 39:1728-1732 mapping, agronomic aestivum L.) cultivar `Wichita' (WI) was
Yenb Y., Kaepplerc Bread Wheat traits previously found to differ from that of
Bauer Ariyarathned
485 S.M., E., Weyen J., 1997 Molecular mapping of novel resistance Theoretical Barley Mild Mosaic `Cheyenne' (CNN) for genes affecting a
In the present study three novel genes
Schiemann A., Graner genes against Barley Mild Mosaic Virus and Applied Virus (BaMMV) · from barley accessions 10247 (ym8),
A., Ordon F. (BaMMV) Genetics 95: Hordeum vulgare · Bulgarian 347 (ym9), and Russia 57
486 Brigneti G., Garcia-Mas 1997 Molecular mapping of the potato virus Y 1263-1269
TAG Molecular markers ·
Potato virus Y - Rysto Ry sto which confer resistance confers
(ym11),is a dominant gene whichto Barley
J., Baulcombe D. C. resistance gene Rysto in potato Theoretical extreme resistance - resistance to potato virus Y (PVY) in
and Applied Solanum tuberosum - potato. We have used bulked segregant
487 Brunner S., Keller B., 2000 Molecular mapping of the Rph7.g leaf Genetics 94: High-resolution map -
Theoretical Barley - Leaf rust - analysis of an F1 tetraploid potato
In many temperate areas of the world, leaf
Feuillet C. rust resistance gene in barley ( Hordeum and Applied Marker-assisted selection rust is becoming an important disease of
vulgare L.) Genetics 101 - Resistance gene - barley. In the last decade, new races of
488 Huang X. Q., Hsam S. 2000 Molecular mapping of the wheat Theoretical Single-nucleotide
AFLPs - Bulked Puccinia hordei G. Otth have emerged
Molecular markers were identified in
L. K., Zeller F. J., powdery mildew resistance gene Pm24 and Applied segregant analysis - common wheat for the Pm24 locus
Wenzel G., Mohler V. and marker validation for molecular Genetics 101 Marker-assisted selection conferring resistance to different isolates
489 Nelson J. C., Sorrells 1995 breeding Mapping of Wheat: Major
Molecular Genetics 141: - Microsatellites -
Molecular mapping, of molecular-marker linkage map of
A the powdery mildew pathogen,
M. E., Van-Deynze A. Genes and Rearrangements in 721-731 wheat, genes hexaploid wheat (Triticum aestivum L.
E., Lu Y. H., Atkinson Homoeologous Groups 4, 5, and 7 em. Thell) provides a framework for
490 M., Bernard M., Leroy 1995
Berry S. T., Leon A. J., Molecular marker analysis of Helianthus Theoretical Restriction fragment A detailed linkage classical genetic map
integration with themap of Helianthus
Hanfrey C. C., Challis annuus L. 2. Construction of an RFLP and Applied length polymorphism annuus was constructed based on
P., Burkholz A., linkage map for cultivated sunflower Genetics 91: (RFLP) - Linkage map - segregation at 234 RFLP loci, detected by
Barnes S. R., Rufener 195-199 Helianthus annuus - 213 probes, in an F2 population of 289
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
491 Kandemir N., Kudrna 2000 Molecular marker assisted genetic Theoretical Brittle rachis - Weak Head shattering in barley (Hordeum
D. A., Ullrich S. E., analysis of head shattering in six-rowed and Applied rachis - QTL - Spike vulgare L.) has two forms; brittle rachis
Kleinhofs A. barley Genetics 101: density - Peduncle and weak rachis. Brittle rachis is not
492 Lu H., Bernardo R. 2001 Molecular marker diversity among 203-210
Theoretical curvature
Genetic diversity · Maize observed in cultivated barley since all
Advanced-cycle pedigree breeding has
current and historical maize inbreds and Applied · SSR caused maize (Zea mays L.) inbreds to
Genetics 103: become more-elite but more-narrow
493 Zhang Q., Zhou Z. Q., 1996 Molecular marker heterozygosity and 613-617
Theoretical Oryza sativa - Hybrid genetically. Our objectives were to
An essential assumption underlying
Yang G. P., Xu C. G., hybrid performance in indica and and Applied rice - Predicting markerbased prediction of hybrid
Liu K. D., Saghai japonica rice Genetics 93: heterosis - Diallel cross - performance is a strong linear correlation
494 Maroof M. A.
William M., Singh R. 2003 Molecular Marker Mapping of Leaf Rust 1218-1224
Phytopatholog Wheat, leaf rust, yellow between molecular marker heterozygosity
Restriction fragment Leaf and stripe rusts, caused by Puccinia
P., Huerta-Espino J., Resistance Gene Lr46 y 93:153-159 rust, Lr46, Yr29 triticina and P. striiformis,
Ortiz Islas S., and Its Association with Stripe Rust respectively, are globally important fungal
Veldboom D.
495 HoisingtonL. R., Lee 1994 Molecular Gene Yr29 in Wheat
Resistance marker-facilitated studies in Theoretical Maize - Restriction diseases of wheat that cause
Restriction fragment length
M., Woodman W. L. an elite maize population: I. Linkage and Applied fragment length polymorphisms (RFLPs) and one
analysis and determination of QTL for Genetics 88 polymorphisms (RFLPs) - morphological marker were used to
496 DUDLEY J. W., 1991 morphological traits grouping of
Molecular markers and Crop science Qualitative and
Maize, breeding In maize (Zea mays L.) trait loci programs
investigate quantitative breeding (QTL)
SAGHAI MAROOF M. parents in maize breeding programs 31: 718-723 programmes, molecular identifying potentially high yielding
A., RUFENER G. K. markers hybrids, assigning new inbreds to heterotic
497 Burstin J., De Vienne 1994 Molecular markers and protein quantities Theoretical Zea mays L. - Genetic groups, and determiningmays L.) inbred
Twenty-one maize (Zea the parental line
D., Dubreuil P., as genetic descriptors in maize. I. and Applied distances - Protein lines were analysed using isozyme
Damerval C. Genetic diversity among 21 inbred lines Genetics 89: polymorphism - Two- electrophoresis, restriction fragment
498 Gupta P. K., Varshney 1999 943-950
Molecular markers and their applications Plant Breeding dimensional
Molecular markers, length polymorphism (RFLP), and two-
In recent years, considerable emphasis has
R. K., Sharma P. C., in wheat breeding 118: 369-390 applications, wheat been placed on the development of
Ramesh B. breeding molecular markers to be used for a variety
499 Cloutier S., Landry B. 1994 Molecular markers applied to plant In Vitro molecular markers - of objectives. This review attempts to give
The last decade has witnessed successful
S. tissue culture Cellular & somaclonal variation - applications of plant tissue culture
Developmenta doubled haploids - techniques in several crops. During that
500 Goldman I.L., 1994 Crop science molecular mapping -
Molecular markers associated with maize l Biology - maize, kernel oil, same period, studies in plant molecular
The Illinois Long Term Selection Strains
Rocheford T.R., Dudley kernel oil concentration in an Illinois 34: 908-915 molecular markers, offer a unique opportunity to investigate
J.W. High Protein × Illinois Low Protein cross the quantitative genetic basis of kernel
chemical traits. This study was conducted
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
501 Schachermayr G., 1997 Molecular markers for the detection of Molecular leaf rust - molecular We recently showed that the Lr10 wheat
Feuillet C., Keller B. the wheat leaf rust resistance gene Lr10 Breeding 3:65- marker - receptor-like leaf rust resistance gene cosegregated with
in diverse genetic backgrounds 74 kinase - resistance the candidate resistance gene Lrk10 which
502 Gupta P. K., Rustgi S. 2004 Molecular markers from the Functional & breeding - resistance
Functional markers encodes ayears, molecular marker
In recent putative receptor-like kinase.
transcribed/expressed region of the Integrative (FMs) - Gene targeted technology in higher plants has witnessed
genome in higher plants Genomics 4: markers (GTMs) - a shift from the so-called random DNA
503 Cadalen T., SourdilleP., 1998 Molecular markers linked to genes 139-162
Theoretical Transcript maps - eQTLs
Plant height - Molecularmarkers (RDMs), developed in the past
Plant height in wheat (Triticum aestivum
Charmet G., Tixier M. affecting plant height in wheat using a and Applied markers - QTL - Wheat - L. em Thell) is known to be under
H., Gay G., Boeuf C., doubled-haploid population Genetics 96: Doubled-haploid lines polygenic control. Crosses involving
504 Bernard S., Leroy P.,
Dedryver F., Jubier 1996 Molecular markers linked to the leaf rust 933-940
Genome Wheat, leaf rust, RAPD, genes Rht-B1 and Rht-D1,to find on
The aim of this study was located
M.F., Thouvenin J., resistance gene Lr24 in different wheat 39:830-835. SCAR molecular markers (RAPD and SCAR) for
Goyeau H. cultivars. the wheat leaf rust resistance gene Lr24. A
505 Craig Yencho G., 1996 Molecular markers locate genes for The wild line, RL potato, Solanum
Entomologia insect resistance - plant backcross Bolivian 6064, possessing a
Bonierbale M. W., resistance to the Colorado potato beetle, Experimentali breeding - restriction berthaultii Hawkes, has been used as a
Tingey W. M., Plaisted Leptinotarsa decemlineata, in hybrid s et Applicata fragment length source of resistance to the Colorado potato
506 R. L., Tanksley S. D.
Matthews B. F., Molecular markers × S. berthaultii
1998 Solanum tuberosumresiding close to the 81: 141-154
Theoretical polymorphisms (RFLPs) - beetle (CPB), Leptinotarsa decemlineata
Soybean cyst nematode The restriction fragment length
MacDonald M. H., Rhg4 locus conferring resistance to and Applied resistance - Molecular polymorphism (RFLP) clone pBLT65 is a
Gebhardt J. S., Devine soybean cyst nematode race 3 on linkage Genetics 97: markers - Polymerase 450-nt soybean cDNA encoding a portion
Molecular, soybean
507 T. E. F., Businelli S., 1995 group A of cytological and morpho-
Pupilli 1047-1052
Theoretical chain reaction
Medicago - Somatic of the bifunctional enzyme aspartokinase-
Somatic hybrid plants produced by
Caceres M. E., Damiani agronomical characterization of and Applied hybrids - RFLP analysis - protoplast fusion between tetraploid
F., Arcioni S. hexaploid somatic hybrids in Medicago Genetics 90: Meiotic analysis - Field Medicago sativa (2n= 4x=32) and the
508 Foisset N., Delourme 1996 Molecular-mapping analysis in Brassica 347-355
Theoretical evaluation
Brassica napus - L. diploid species Medicago coerulea (2n= a
We have undertaken the construction of
R., Barret P., Hubert napus using isozyme, RAPD and RFLP and Applied Genetic mapping - RFLP Brassica napus genetic map with isozyme
N., Landry B. S., markers on a doubled-haploid progeny Genetics 93: and RAPD markers - (4%), RFLP (26.5%) and RAPD (68%)
Renard M.
509 Freymark P. J., Lee 1994 Molecular-marker-facilitated 1017-1025
Theoretical RFLPs on a 152 to investigate
Segregation distortions - markerswere used lines of a doubled-
Breeding -
M., Martinson C. A., investigation of host-plant response to and Applied Helminthosporium components of host-plant response to
Woodman W. L. Exserohilum turcicum in maize (Zea Genetics 88: turcicum - RFLP - QTLs Exserohilum turcicum in 150 unselected
510 Wu P., Zhang G., 1995 mays L.): components of resistance
Molecular-marker-facilitated 305 -313
TAG Oryza sativa L. - Atom F23F2 population, consisting of 231
- Disease-resistance - An lines of a B52/Mo17 maize
Ladha J. K., McCouch investigation on the ability to stimulate Theoretical 15N% excess - N2 individuals derived from a cross between
S. R., Huang N. N2 fixation in the rhizosphere by and Applied fixation - Restriction rice cultivars with a similar growing
irrigated rice plants Genetics 91: fragment length duration, Palawan and IR42, was utilized
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
511 Edwards M. D., 1992 Molecular-marker-facilitated Theoretical Restriction fragment Restriction fragment length
Helentjaris T., Wright investigations of quantitative trait loci in and Applied length polymorphisms have become powerful
S., Stuber C. W. maize Genetics 83: polymorphisms(RFLPs) - tools for genetic investigations in plant
512 Edwards M. D., Stuber 1987 Molecular-Marker-Facilitated 765-774 116: Isozymes - Quantitative species. They allow a much greater degree
Genetics Maize, QTL, molecular Individual genetic factors which underlie
C. W., Wendel J. F. Investigations of Quantitative-Trait Loci 113-125 marker, gene action variation in quantitative traits of maize
in Maize. I. Numbers, Genomic were investigated
513 Veldboom L. R., Lee 1994 Distribution and Types of Gene Action Theoretical
Molecular-marker-facilitated studies of Restriction fragment in each of two F2 populations by
Genetic factors controlling quantitative
M. morphological traits in maize. II: and Applied length polymorphism inheritance of grain yield and its
Determination of QTLs for grain yield Genetics 89: (RFLP) - Quantitative components have not previously been
514 Ragot M., Sisco P.H., 1995 and yield components
Molecular-marker-mediated Crop science trait loci (QTLs) - Plant investigated by using replicated lines of an
451-458 maize, QTL, molecular Exotic maize (Zea mays L.) germplasm,
Hoisington D.A., Stuber characterization of favorable exotic 35: 1306-1315 marker, exotic alleles shown to be useful for developing
C.W. alleles at quantitative trait loci in maize improved temperate cultivars, has
515 Gao D., Guo D., Jung 2001 Monosomic addition lines of Beta TAG Beta vulgaris · remained little used partly because of
ttBeta corolliflora is a wild relative of
C. corolliflora Zoss in sugar beet: Theoretical Monosomic addition line sugar beet (Beta vulgaris) with 2n=4x=36
cytological and molecular-marker and Applied · Repetitive DNA · FISH chromosomes. Monosomic addition lines
516 Frugis G., Mele G., DnaJ-like B. corolliflora in B. vulgaris
1999 analysis alfalfa DnaJ-like gene, is tissue- Genetics 103: · Species-specific- heat (2n=19) ofproteins are molecular
MsJ1, an Plant cell cycle - DnaJ
Giannino D., Mariotti specific and transcriptionally regulated Molecular shock - Medicago sativa - chaperones that regulate Hsp70 ATPase
D. during cell cycle Biology 40: molecular chaperones - activity both in protein folding, assembly
517 Spielmeyer W., Huang 2000 NBS-LRR sequence family is associated 397-408Theoretical transcriptional regulation and disassembly of protein constructed of
Wheat - Rust resistance - A detailed RFLP map was complexes.
L., Bariana H., with leaf and stripe rust resistance on the and Applied RGA markers - Ae. the distal end of the short arm of
Laroche A., Gill B.S., end of homoeologous chromosome group Genetics 101: Tauschii chromosome 1D of Aegilops tauschii and
Carrillo E.S.
518 LagudahJ. C., Ojeda 2004 1S of wheat of a protocol for direct
Optimization A series of experiments were resistance-
2000 Res. 37 In vitro culture, meristem wheat. At least two unrelated carried out
Biol.
V.A., Campos-De organogenesis of culture, red clover, in order to optimize a protocol for the
Quiroz H.A., Ortega red clover (Trifolium pratense L.) Trifolium pratense L. direct organogenesis of Chilean red clover
519 F.M.
Rodrigues L. R., Terra Origin of for
2004 meristemsEmbryo-Like Structures in Plant Cell, androgenesis - anther germplasm. A range of cultivars were used
The Satt418 microsatellite locus was
T. D. F., Bered F., Soybean Anther Culture Investigated Tissue and culture - Glycine max - examined in order to investigate the origin
Bodanese-Zanettini M. Using SSR Marker Organ 77: 287-microsatellite - somatic of embryo-like structures (ELS) obtained
520 H.
Chabaud M., Passiatore 1988 Parameters affecting the frequency of 289 Cell
Plant embryogenesis Kanamycin resistant plants Four
Alfalfa, Agrobacterium from soybean anther culture.of Medicago
J. E., Cannon F., kanamycin resistant alfalfa obtained by Reports 7: 512- tumefaciens, kanamycin varia A2 were obtained by an optimized
Buchanan-Wollaston V. Agrobacterium tumefaciens mediated 516 resistant procedure for high frequency
transformation transformation using Agrobacterium
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
521 Morgante M., Olivieri 1993 PCR-amplified microsatellites as The Plant Plant, genetics, PCR, In order to assess the feasibility of using
A. M. markers in plant genetics Journal 3: 175- microsatelites microsatellites as markers in plant
182 genetics, a survey of published DNA
522 Paulus, Köllner B., 1993 Physiological and biochemical Planta 189: Auxin - Enzyme sequence data for presence, abundance
Using a strictly auxin-dependent soybean
Jacobsen H-J. characterization of glyoxalase I, a 561-566 induction - Glycine (cell(Glycine max (L.) Merr.) cell suspension,
general marker for cell proliferation, suspension) - Glyoxalase we studied the correlation of auxin-
523 Pan R-C., Gui H. Physiological basis suspension
1997 from a soybean cell of the synergistic Plant Growth I (purification
adventitious root dependent cell proliferation and the and
Mixtures of 1–3 × 20.32 mg L-1 IBA
effects of IBA and triadimefon on Regulation formation - gibberellin -1–3 × 289.5 µg L-1 triadimefon (TRI)
rooting of mung bean hypocotyls 22: 7-11 indole butyric acid - significantly increased the formation of
524 Muñoz J. A., Palomares 1996 Plant genes induced in the Rhizobium- gene expression - acid -
World Journal indole-3-yl acetic nodule adventitious roots in mung bean hypocotyl
Rhizobium, Bradyrhizobium and
A. J., Ratet P. legume symbiosis of development - nodulin Azorhizobium can elicit the formation of
Microbiology genes - Rhizobium- N2-fixing nodules on the roots or stems of
525 Kameswara R. N. 2004 Plant genetic resources: Advancing and
African legume symbiosis
Biotechnology, Conservation and sustainable use nodule
their leguminous host plants. The of
conservation and use through Journal of conservation, plant genetic resources is essential to meet the
biotechnology Biotechnology genetic resources demand for future food security. Advances
526 Samac D. A., Tesfaye 2003 Plant improvement for tolerance to 3: 136-145
Plant Cell, acid soil - aluminum in biotechnologyacid soils that limit crop
Development of have generated new
M. aluminum in acid soils – a review Tissue and toxicity - cell culture -production is an increasing problem
Organ Culture DNA markers - genetic worldwide. Many factors contribute to
527 MonteiroI M., 2003 Plant regeneration from proroplasts of 75: 189-207
Sci. agric.60 modification - organic
plant biotechnology, in phytotoxicity of these soils, however, in
Alfalfa is one of the most frequently
Appezzato-da-GlóriaII alfalfa (Medicago sativa ) via somatic vitro culture, studied species from the production of
B., ValariniIII M. J., embryogenesis morphogenesis, forage tissue culture-derived embryos point of
528 De OliveiraI C. A.,
Holland J.B., Helland 2001 Polymorphism of PCR-based markers Genome 44: legume Zea, genetic
Avena, view. In this study, five alfalfa cultivars
Sequence databases could be efficiently
S.J., Sharopova N., targeting 1065–1076 diversity, DNA exploited for development of DNA
Rhyne D.C. exons, introns, promoter regions, and sequence. markers if it were known which
529 Burkhamer R. L., 1998 SSRs in progeny variance from
Predicting Crop Sci spring wheat, progeny, Selection of reveal is most
gene regionsparents thean important first
Lanning S. P., Martens parental divergence in hard red spring 38:243-248 parental divergence step in any breeding program. The ability
R. J., Martin J.M., wheat to assess accurately genetic differences
Hu Q., L. E.
530 Talbert Andersen S., 2002 Production of fertile intergeneric somatic Plant Cell Blackleg resistance, Somatic parents between Brassica napus
between hybrids and subsequently to
Dixelius C., Hansen L. hybrids between Brassica napus and Reports 21: Intergeneric (oilseed rape) and its wild relative Sinapis
Sinapis arvensis for the enrichment of 147-152 hybridization, Protoplast arvensis (Xinjiang wild mustard) from
the rapeseed gene pool fusion, Xinjiang wild northwestern China were produced by
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
531 Puonti-Kaerlas J., 1990 Production of transgenic pea (Pisum Theoretical Transformation - Pea - A transformation system that allows
Eriksson T., Engström sativum L.) plants by Agrobacterium and Applied Pisum sativum - regeneration of transgenic pea plants from
P. tumefaciens — mediated gene transfer Genetics 80: Agrobacterium calli selected for antibiotic resistance was
532 Griga M., Horáček J., 2007 Protein patterns associated with Pisum 246-252
Biologia tumefaciens -
embryo development - developed. Explants from axenic shoot
Total protein patterns were studied in the
Klenotičová H. sativum somatic embryogenesis Plantarum 51: pea - seed proteins - course of development of pea somatic
201-211 storage substances - embryos using simple protocol of direct
533 Maksyutova N. N., 2005 Proteins as Morphogenetic Markers in Biology zygotic embryogenesis
Fagopyrum tataricum, regenerationof soluble proteinsmeristems
The content from shoot apical and
Galeeva E. I., Callus Cultures of Buckwheat Bulletin 32: Morphogenetic Markers, individual polypeptides was studied in
Rumyantseva N. I., Fagopyrum tataricum (L.) Gaertn with 250-253 Callus Cultures calluses of buckwheat Fagopyrum
Kwon Y.S., V.
534 Viktorova L. Eun 2002 Different Morphogenetic Potential
QTL mapping and associated marker Plant Breeding anther culture, rice, tataricum (L.) Gaertn with different
Anther culturability of rice is a
K.M.Y., Sohn J.K. selection for the efficacy of green plant 121: 10-16 QTL, mapping quantitative trait controlled by nuclear-
regeneration in anther culture of rice encoded genes. The identification of
535 Manifestoa M.M., 2001 Quantitative Evaluation of Genetic Crop Science Wheat, molecular, quantitative trait loci (QTL) and means
Characterization of germplasm by
Schlattera A.R., Hoppb Diversity in Wheat Germplasm Using 41:682-690 markers, Genetic of DNA fingerprinting techniques
H.E., Suáreza E.Y., Molecular Markers diversity provides a tool for precise germplasm
Haddon L. J.
536 DubcovskyE., 1975 Quantitative measurement of the course maintenance and a quantitative estimate
Journal of Cell Bean, callus, quantitative identificationmedium supplemented with 2
Northcote D. H. of bean callus differentiation Science 17: 11- measurements mg/l. 2:4-dichlorophenoxyacetic acid
26 (2:4D) and 2% sucrose. Root initiation
537 Schippers L., Gieffers 1994 Quantitative Resistance to Phytophthora Genetics 137: Potato, Phytophthora was observed infestans is the most
Phytophthora in one strain and formation
W., Schafer-Pregl R., infestans in Potato: A Case Study for 67-77 infestans, resistance important fungal pathogen in the
Ritter E., Knapp S. J., QTL Mapping in an Allogamous Plant QTL., cultivated potato (Solanum tuberosum).
538 Salamini F., Gebhardt
Narasimhamoorthy B., 2007 Species
Quantitative trait loci and candidate gene Theoretical Aluminum (Al) toxicity resistance alleles
diploid alflafa, aluminum Dominant, race-specific in acid soils is a
Bouton J. H., Olsen K. mapping of aluminum tolerance in and Applied tolerance, major limitation to the production of
M., Sledge M. K. diploid alfalfa Genetics 114: alfalfa (Medicago sativa subsp. sativa L.)
539 Beavis W. D., Grant D., 1991 Quantitative trait loci for plant height in 901-913
Theoretical Zea mays L. - Molecular in the USA. Developing Al-tolerant alfalfa
We report that plant height quantitative
Albertsen M., Fincher four maize populations and their and Applied markers - Restriction trait loci (QTLs) identified in a given
R. associations with qualitative genetic loci Genetics 83: fragment length small population are not consistent with
540 Hayes P. M., Liu B. H., 1993 Quantitative trait locus effects and 141-145
Theoretical polymorphisms (RFLPs) - QTLs identified in other small and QTL x
QTL - RFLP mapping - Quantitative trait locus (QTL)
Knapp S. J., Chen F., environmental interaction in a sample of and Applied marker-assisted selection environment (E) interaction effects for
Jones B., Blake T., North American barley germ plasm Genetics 87: - Barley agronomic and malting quality traits were
Franckowiak J., 392-401 measured using a 123-point linkage map
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
541 Visser R. G. F., 1989 ransformation of homozygous diploid Plant Agrobacterium Transformed potato (Solanum tuberosum)
Jacobsen E.,Hesseling- potato with an Agrobacterium Molecular tumefaciens - plants were obtained from homozygous
Meinders A., Schans tumefaciens binary vector system by Biology 12: adventitious shoot diploid potato by using a transformation
542 M. J., Witholt B.,
Osipova E. S., Kokaeva 2001 adventitious shoot regeneration on leaf
RAPD Analysis of Maize Somaclones 329-337
Russian regeneration -
Maize, somaclones, procedure indifference betweenan
The genetic combination with maize line
Z. G., Troitskij A. V., Journal of RAPD, analysis A188 and A188-derived somaclones was
Dolgikh Yu. I., Genetics 37: assessed via analysis of randomly
543 Shamina Z. B.,
Vitale M., Pupilli F., 1998 RAPD analysis reveals a low rate of 80-84
Genetic burr medic - genetic Although polymorphic DNA (RAPD). In
amplified burr medic (Medicago
Labombarda P., Arcioni outcrossing in burr medic (Medicago Resources and variability - Medicago - polymorpha L.) is commonly considered a
S. polymorpha L.) Crop outcrossing rate - RAPD - self-pollinating species, intrapopulational
544 Kuznetsova O. I., Ash 2005 RAPD and ISSR analyses of regenerated Evolution 45:
Russian selfingsativum, RAPD, variation for morphological, biochemical
Pisum Long-term pea callus cultures of different
O. A., Hartina G. A., pea Pisum sativum L. plants Journal of ISSR, callus culture, genotypes (mutants R-9 and W-1 and
Gostimskij S. A. Genetics 41: regenerants cultivar Viola) were used to regenerate
545 Trinh T. H., Ratet P., 1998 Rapid and efficient transformation of 60-65Cell
Plant M. truncatula - M. plants (generation R0). The regenerants
We describe a simple and efficient
Kondorosi E., Durand diploid Medicago truncatula and Reports 17: falcata - MsEnod12A - protocol for regeneration-transformation
P., Kamaté K., Bauer Medicago sativa ssp. falcata lines 345-355 MsEnod12B - Srglb3 of two diploid Medicago lines: the annual
Aulinger I. E., A.
546 P., Kondorosi Peter S. 2003 improved in somaticaembryogenesis
Rapid attainment of doubled haploid In Vitro androgenesis - M. truncatulastrategy for establishing a
We present a R108-1(c3) and the
O., Schmid J. E., line from transgenic maize ( Zea mays Cellular & homozygosity - SSR - transgenic doubled haploid maize line
Stamp P. L.) plants by means of anther culture Developmenta pat gene - herbicide from heterozygous transgenic material by
547 Hatamoto H., Boulter 1990 Recovery of morphologically normal l Biology -
Plant Cell resistance
Agrobacterium means of anther culture. Compared to
Co-transformation of tobacco (Nicotiana
M. E., Shirsat A. H., transgenic tobacco from hairy roots co- Reports 9: 88- rhizogenes, tobacco, tabacum) leaf explants with
Croy E. J., Ellis J. R. transformed with Agrobacterium 92 hairy roots, Recovery Agrobacterium rhizogenes harbouring
548 Christey M. C., Sinclair 1997 Regeneration of binary vector plasmid Plant Cell
rhizogenes and atransgenic vegetable Agrobacterium pRi1855 and for the productionpBin19 was
A procedure the binary vector of fertile
B. K., Braun R. H., brassicas (Brassica oleracea and B. Reports 16: rhizogenes · Brassica transgenic brassicas via Ri-mediated
Wyke L. campestris ) via Ri-mediated 587-593 oleracea · Brassica transformation is reported in this paper.
549 Bernardo R. 1992 transformation
Relationship between single-cross Theoretical campestris ·
Isozymes - RFLPs - Transgenic hairy root lines were selected
studies involving isozymes or restriction
performance and molecular marker and Applied Heterozygosity - Hybrid fragment length polymorphisms (RFLPs),
heterozygosity Genetics 83: performance - correlations of parental molecular marker
550 Harpster M. H., 1988 Relative strengths of the 35S califlower 628-634 and
Molecular Combining ability -
Promoter strength diversity promoter of cauliflower mosaic
The 35S with grain yield of maize (Zea
Townsend J. A., Jones mosaic virus, 1′, 2′, and nopaline General Transformed callus - virus and promoters from the nopaline
J. D. G., Bedbrook J., synthase promoters in transformed Genetics 212: Chitinase gene - synthase, 1 and 2 genes of Agrobacterium
Dunsmuir P. tobacco sugarbeet and oilseed rape callus 182-190 Octopine synthase gene - tumefaciens T-DNA were fused to the
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
551 Seah S., Spielmeyer W., 2000 Resistance Gene Analogs within an MPMI 13: genomic library, linked A resistance (R) gene-rich 2S
Jahier J., Introgressed 334–341. rust genes, wheat genetic chromosomal segment from
Sivasithamparam K., Chromosomal Segment Derived stocks. Triticum ventricosum contains a cereal
552 and Lagudah E.S. Line
Yan G., Chen X., 2003 from Triticum ventricosum That Confers
Resistance gene-analog polymorphism Theoretical Molecular markers, cyst Yr5 gene confers resistance to all
The nematode
R., Wellings C. markers co-segregating with the YR5 and Applied Puccinia striiformis, races of the stripe rust pathogen (Puccinia
gene for resistance to wheat stripe rust Genetics 106: Resistance gene-analog striiformis f. sp. tritici) of wheat in the
553 Rose R. J., Johnson L. 1986 Restriction endonuclease studies on the 636-643
Plant Alfalfa protoclones were molecular
polymorphism, Triticum United States. To developregenerated from
alfalfa - chloroplast
B., Kemble R. J. chloroplast and mitochondrial DNAs of Molecular DNA - Medicago sativa the mesophyll protoplasts of two cloned
alfalfa (Medicago sativa L.) protoclones Biology 6: 331- L. - mitochondrial DNA - source plants (parents), RS-K1 and RS-
554 Apuya N. R., Frazier B. 1988 Restriction fragment length 338
Theoretical protocloneRestriction
Soybean - - protoplast K2, initiated from Regen S seed. Because
Restriction Fragment Length
L., Keim P., Jill Roth polymorphisms as genetic markers in and Applied fragment length Polymorphisms (RFLP) have been
E., Lark K. G. soybean, Glycine max (L.) merrill Genetics 75: polymorphism - Genetics identified between widely distant cultivars
555 Queen R. A., Gribbon 2004 Retrotransposon-based molecular 889-901
Molecular - Allele - Variation
Retrotransposon - (Minsoy and Noir 1 ) ofmolecularGlycine
Retrotransposon-based soybean markers
B. M., James C., Jack markers for linkage and genetic diversity Genetics and Transposable element - have been developed to study bread wheat
P., Flavell A. J. analysis in wheat Genomics Triticum aestivum - ( Triticum aestivum) and its wild relatives.
556 Brown C. R., Yang C. 1996 RFLP analysis of resistance to Columbia 271: 91-97
Theoretical copia species -
Wild SSAP (Sequence-Specific Amplification
The mapping of resistance toMeloidogyne
P., Mojtahedi H., root-knot nematode derived from and Applied Introgression - chitwoodi derived from Solarium
Santo G. S., Masuelli Solanum bulbocastanum in a BC2 Genetics 92: Meloidogyne chitwoodi - bulbocastanum is reported. A population
557 R.
Schon C.C., 1994 population
RFLP mapping in maize : quantitative 572-576 maize, RFLP, - Potato The dissection of quantitative traits as
Crop science Gene mappingmapping, suitable for mapping was developedinto
Melchingera A.E., trait loci affecting testcross performance 34: 378-389 flint lines their underlying Mendelian factors has
Boppenmaier J., of elite european flint lines become possible with the aid of molecular
558 Brunklaus-Jung Moreno- 1999 RFLP mapping of QTL for fusarium
Waldron B. L., E., Published in wheat, fusarium head markers. In this study, we mapped and
Recent epidemics of fusarium head blight
Sevilla B., Anderson J. head blight resistance in wheat Crop Sci blight, resistance, QTL (FHB), caused by Fusarium graminearum
A., Stack R. W., 39:805-811 Schwabe (telomorph: Gibberella zeae), in
559 Frohberg R. C.
Ritter E., Debener T., 1991 RFLP mapping on potato chromosomes Molecular and Potato virus X - the USA chromosomal locations of major
different and Canada have caused severe
Barone A., Salamini F., of two genes controlling extreme General Resistance genes - RFLP genes controlling extreme resistance to
Gebhardt C. resistance to potato virus X (PVX) Genetics 227: - Solanum tuberosum - potato virus X (PVX) were found by
560 Moser H., Lee M. 1994 RFLP variation and genealogical 81-85
Theoretical Avena sativa L. - Genetic restriction fragment length polymorphism
Genetic introgression Patterns of restriction fragment length
distance, multivariate distance, heterosis, and Applied distance - RFLPs - polymorphisms (RFLPs) have been
and genetic variance in oats Genetics 87: Heterosis - Genetic proposed as estimators of genetic diversity
947-956 variance among breeding lines and as predictors of
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
561 Saghai-Maroof M. A., 1984 Ribosomal DNA Spacer-Length Population barley, ribosomal, DNA, Spacer-length (sl) variation in ribosomal
Soliman K. M., Polymorphisms in Barley: Mendelian Biology 81: Mendelian Inheritance, RNA gene clusters (rDNA) was surveyed
Jorgensen R. A., Allard Inheritance, Chromosomal Location, and 8014-8018 Chromosomal Location in 502 individual barley plants, including
562 R. W.
Nagamura Y., Antonio 1997 Population Dynamics map using RFLPs
Rice molecular genetic Plant RFLP marker - In the past decade, notable of cultivated
samples from 50 accessionsprogress has
B. A., Sasaki T. and its applications Molecular molecular genetic map - been made in rice molecular genetic
Biology 35: application - comparative mapping using genomic or cDNA clones.
563 Sukhapinda K., Spivey 1987 Ri-plasmid as a helper for introducing 79-87
Plant mapping - gene transfer
hairy root A total of over 3000 of legumes and other
Genetic engineering DNA markers,
R., Shahin E. A. vector DNA into alfalfa plants Molecular important dicotyledonous plants is limited
Biology 8: 209- because of the difficulty of regenerating
564 Nieto-Lopez R.M., 1994 Russian wheat aphid resistance in Barley 216 science Barley, russian wheat
Crop plants via cell culture. Since aDiuraphis
Russian wheat aphid (RWA),
Blake T.K. : inheritance and linked molecular 34: 655-659 aphid, resistance, noxia (Mordvilko), is an important pest of
markers molecular markers small grains cereals in many areas
565 Causse A. , Fulton T. 1994 Saturated Molecular Map of the Rice Genetics 138: Rice, molecular map, throughout the world. been constructed for
A molecular map has This research was
M., Cho Y. G., Ahn S. Genome Based on an Interspecific 1251-1274 genome, backross the rice genome comprised of 726 markers
N., Chunwongse J. , Backcross Population population (mainly restriction fragment length
Kuai K. Wu. J.,
566 Xiao B., Morris P.Yu Z., 1996 Screening for stable transformants and Plant Cell Festuca arundinacea, β- polymorphisms; RFLPs). The mapping
By screening cell colonies derived from
stability of β-glucuronidase gene Reports 15: glucuronidase gene protoplasts of tall fescue (Festuca
expression in suspension cultured cells 804-808 expression, suspension arundinacea), transformed with a rice actin-
Segregation (Festuca at marker loci:
567 Dufour P., Johnsson C., 2001 of tall fescuedistortion arundinacea) Theoretical cultured cells
Microspore 1-promoter-ß-glucuronidase gene the
In the present study, we analyzed
Antoine-Michard S., variation during microspore and Applied embryogenesis - segregation distortions of markers during
Cheng R., Murigneux embryogenesis in maize Genetics 102: Regeneration - AFLP - in vitro androgenesis in maize. This was
568 A., Beckert M. T.,
Michael Spencer 1992 Segregation of transgenes in maize 993-1001
Plant maize - Segregation
Maize - transformation - based on recovered from backcrossed
Progeny four segregating populations
O'Brien J. V., Start W. Molecular inheritance - transgenic maize tissue culture regenerants
G., Adams T. R., Biology 18: phosphinothricin (R0) were analyzed to determine the
569 Gordon-Kamm W. J.,
Özcan S., Firek S., Bio/Technolog acetyltransferase - Plant
1993 Selectable Marker Genes Engineered for 201-210 Genes Engineered, A wound-induced promoter stability
segregation, expression, and(AoPRl) of
Draper J. Specific Expression in Target Cells for y 11: 218 - Transformation, isolated from Asparagus officinalis was
Plant Transformation 221 Asparagus officinalis shown by GUS reporter gene analysis to
570 Chen X., Yang W., 2005 Selective elimination of perennial Molecular argE - N-acetyl- be active during callus formation in tissue
Perennial ryegrass is widely used for
Sivamani E., Bruneau ryegrass by activation of a pro-herbicide Breeding 15: phosphinothricin - overseeding dormant bermudagrass on
A. H., Wang B., Qu R. through engineering E. coli argE gene 339-347 Perennial ryegrass - golf courses and sports fields in
Phosphinothricin - Southeastern United States to provide
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
571 Narasimhulu S. B., Kirti 1992 Shoot regeneration in stem expiants and Plant Cell Brassica carinata - Immature stem segments of seven
P. B., Mohapatra T., its amenability to Agrobacterium Reports 11: Agrobacterium different genotypes of Brassica carinata
Prakash S., Chopra V. tumefaciens mediated gene transfer in 359-362 tumefaciens - Shoot produced shoots with variable frequencies
572 L.
Smith O. S., Smith J. S. 1990 Brassica carinata a group of elite maize
Similarities among Theoretical regeneration - Gene
Zea Mays L. Restriction when cultured in MS medium withamong
Genetic distances were calculated BAP
C., Bowen S. L., inbreds as measured by pedigree, F1 and Applied fragment length 37 inbred lines representing a wide range
Tenborg R. A., Wall S. grain yield, grain yield, heterosis, and Genetics 80: polymorphisms - Nei's of related and unrelated elite Corn Belt
573 J.
SENIOR M. L., CHIN 1996 RFLPs sequence repeat markers
Simple 833-840
Crop science distance - Coefficient of
Maize, SSR, markers, germ plasm of maize (Zea Mays L.), using
Simple sequence repeats (SSRs) are
E. C. L., LEE M., developed from maize sequences found 36: 1676-1683 genbank rapidly becoming an important class of
SMITH J. S. C., in the GENBANK database : Map DNA markers that are being widely used
574 STUBER C. W.Frugis
Pouisen G. B., 1996 construction extracellular proteins in
Synthesis of Plant Cell, 2,4- to map both plant and animal genomes.
Extracellular proteins, released into the
G., Albrechtsen M., embryogenic and non-embryogenic cell Tissue and dichlorophenoxyacetic culture medium from alfalfa cells grown in
Mariotti D. cultures of alfalfa Organ Culture acid - Medicago sativa - embryogenic and non-embryogenic
575 Nenz E., Pupilli F., 1996 Somatic hybrid plants between the 44: 257-260
Theoretical somatic embryogenesis -
M. sativa - M. arborea conditions, were 35S-methionine labelled
Interspecific somatic hybrid plants were
Damiani F., Arcioni S. forage legumes Medicago sativa L. and and Applied Protoplast electrofusion - obtained by symmetrical electrofusion of
Medicago arborea L. Genetics 93: Somatic hybrids - mesophyll protoplasts of Medicago sativa
576 Dumsday L., Smith K. SSR-based genetic linkage analysis of 183-189
Plant Genome rearrangements
ryegrass, SSR, genetic Crown rust (caused by of Medicago
with callus protoplasts Puccinia coronata
F., Forster J. W., Jones resistance to crown rust (Puccinia Pathology 52 linkage, crown rust f. sp. lolii) is a serious foliar disease of the
E. S. coronata f. sp. lolii) in perennial (5): 628–637. pasture and turfgrass perennial ryegrass
577 Sidorov V. A., Kasten 1999 ryegrass (Lolium perenne )
Stable chloroplast transformation in The Plant potato, fluorescent (Lolium perenne).the development of a
We describe here Previous genetic studies
D., Sheng-Zhi P., potato: use of green fluorescent protein Journal 19: protein, chloroplast reproducible plastid transformation system
Hajdukiewicz P. T. J., as a plastid marker 209-216 transformation for potato and regeneration of plants with
578 Staub J. M., Nehra N..
Van Der Maas H. M., 1994 Stable transformation and long-term Plant Lolium perenne L. - uniformly transformedof perennial
Stable transformation plastids. Two
De Jong E. R., Rueb S., expression of the gusA reporter gene in Molecular transformation - rice ryegrass (Lolium perenne L.) was
Hensgens L. A. M., callus lines of perennial ryegrass Biology 24: gene GOS2 - long-term achieved by biolistic bombardment of a
Paiva F. A.
579 Krens N. L., Edwards Stress responses L.)
1991 (Lolium perenne in alfalfa (Medicago 401-405
Plant GUS expression
fungal elicitor - The major phytoalexin in alfalfa culture,
non embryogenic cell suspensionis the
R., Sun Y., Hrazdina sativa L.) 11. Molecular cloning and Molecular isoflavone reductase isoflavonoid (–)-medicarpin (or 6aR,
G., Dixon R. A. expression of alfalfa isoflavone Biology 17: mRNA - Medicago 11aR)-medicarpin. Isoflavone reductase
580 Blake T. K., STS-PCR a key enzyme of isoflavonoid
1996 reductase, markers appropriate for wheat- 653-667
Theoretical sativa - phytoalexin
STS-PCR markers - Introgression of chromosomal in
(IFR), the penultimate enzyme segments
Kadyrzhanova D., barley introgression and Applied Wheat-barley across large taxonomic distances has long
Shepherd K. W. , Islam Genetics 93: introgression been an objective of scientists interested
A. K. M. R., Langridge 826-832 in understanding the relationships between
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
581 Cloutier S., Cappadocia 1995 Study of microspore-culture Theoretical Microspore culture - RFLP segregation analyses were
M., Landry B. S. responsiveness in oilseed rape (Brassica and Applied Responsiveness genes - performed on a F2 population and two F1
napus L.) by comparative mapping of a Genetics 91: Comparative mapping - microspore-derived populations from the
582 Nadolska-Orczyk A., 2000 F2 population and two microspore-
Study of the factors influencing 841-847
Molecular Doubled haploid-
Agrobacterium same cross between the efficiency culture-
Factors influencing a microspore of
Orczyk W. Agrobacterium-mediated transformation Breeding 6: transformation - pea - Agrobacterium-mediated transformation
of pea (Pisum sativum L.) 185-194 Pisum sativum L. - PCR of pea were tested using highly efficient,
583 Al-Ahmad H., Galili S., 2004 Tandem constructs to mitigate transgene Molecular analysis transgene
Tabacco, direct transgenic crops can introgress
Some regeneration system. The virulence
Gressel J. persistence: tobacco as a model Ecology 13: persistence, model plant genes into other varieties of the crop, to
697-710 related weeds or themselves remain as
584 Bade J., Van Grinsven 2003 T-DNA tagging in Brassica napus as an Plant A simple strategy potentially enhancing
Brassica transformation - 'volunteer' weeds, to identify and isolate
E., Custers J., Hoekstra efficient tool for the isolation of new Molecular callus-specific promoter - new promoters suitable for driving the
S., Ponstein A. promoters for selectable marker genes Biology 52: gus::nptII fusion gene - expression of selectable marker genes is
585 Börner A., Röder M. S., 2000 The detection and molecular mapping of 53-68
Theoretical plasmid rescue -
Adult-plant disease described. By employing a Brassica napus
Unger O., Meinel A. a major gene for non-specific adult-plant and Applied resistance · Gene A major gene determining non-specific
disease resistance against stripe rust Genetics100: mapping · Microsatellites adult-plant disease resistance against
586 Forster B.P., Ellis R.P., 2000 (Puccinia striiformis) in wheat of
The development and application 1095-1099
Journal of · Puccinia striiformis ·
Molecular markers, This rust (Puccinia striiformis)
stripearticle represents some current
Thomas W.T.B., molecular markers for abiotic stress Experimental abiotic stress, molecular thinking and objectives in the use of
Newton A.C., tolerance in barley Botany 51: 19- breeding, cultivated molecular markers to abiotic stress
587 Tuberosa R., This D.,
Li C. D., Rossnagel B. 2000 The development of oat microsatellite 27
Theoretical Enriched-library SSR - Microsatellites have been chosen for
barley, Hordeum -vulgare, tolerance. Barley hasmany desirable
G., Scoles G. J. markers and their use in identifying and Applied Repetitive elements - marker properties. There has been no
relationships among Avena species and Genetics Allelic diversity - report of the development and utilization
588 Taylor C., Madsen K., 2001 oat cultivars
The development of sequence-tagged 101:1259-
Theoretical Evolution tagged sites · of microsatellite markers in oat. The
Sequence Genetic analysis, particularly the
Borg S., Møller M. C., sites (STSs) in Lolium perenne L.: the and Applied PCR · Homology · Wheat development of genetic linkage maps in
Boelt B., Holm P. H. application of primer sets derived from Genetics 103: · Barley · Lolium · forage grass species, lags well behind
589 Barta A., 1986 other genera of a nopaline synthase —
The expression 648-658
Plant Forage growth hormone other members of mammalian RNA
human grasses To study whether the Poaceae.
Sommergruber K., human growth hormone chimaeric gene Molecular gene - plant processing signals function in plants, we
Thompson D., in transformed tobacco and sunflower Biology 6: transformation - have constructed a chimaeric gene in
590 Hartmuth K., Matzke
Borovkova I.G., 1995 callus tissue in barley confers
The gene rpg4 347-357
Phytopatholog Barley, resistance, stem The gene complete human growth
polyadenylation signal - which therpg4 in barley confers resistance
Stefenson B.J., Jin Y., resistance to pathotype QCC of Puccinia y 85: 181-185 rust, pathotype to pathotype QCC of Puccinia graminis f.
Rasmussen J.B., Kilian graminis f. sp. tritici. To facilitate the sp. tritici. To facilitate the efficient
A., Kleinhofs A., efficient transfer of rpg4 into breeding transfer of rpg4 into breeding lines, an
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
591 Eck H. J. V., Van Der 1995 The inheritance and chromosomal Molecular AFLP marker - allelism - AFLPTM is a new technique to generate
Voort J. R., Draaistra J., localization of AFLP markers in a non- Breeding 1: allogamous - linkage large numbers of molecular markers for
Van Zandvoort P., Van inbred potato offspring 397-410 map - Solanum genetic mapping. The method involves the
Collins N. C., Segers
592 Enckevort E., Webb C. The Isolation and Mapping of Disease Molecular tuberosum
maize, disease resistance, selective the plant disease a limited genes
Many of amplification of resistance
A., Seah S., Ellis J. G., Resistance Gene Analogs in Maize Plant-Microbe gene mapping that have been isolated encode proteins
Hulbert S. H., Pryor A. Interactions with a putative nucleotide binding site and
593 Casa A. M., Brouwer 2000 The MITE family Heartbreaker (Hbr): 11: 968-978
PNAS Maize, Molecular leucine-rich repeats (NBS-LRR resistance
Transposable elements are ubiquitous in
C., Nagel A., Wang L., Molecular markers in maize 97:10083- markers, genomic DNA plant genomes, where they frequently
Zhang Q., Kresovich S., 10089 comprise the majority of genomic DNA.
Fernández R.¶
594 Wessler S.M., Figueiras 2002 The use of ISSR and RAPD markers for Theoretical RAPDs, ISSRs, Bulked The maize genome, which is believed to
The potential of bulk analyses of RAPD
A., Benito C. detecting DNA polymorphism, genotype and Applied analyses, Genetic and ISSR-PCR markers for fingerprinting
identification and genetic diversity Genetics 104: diversity, Barley purposes was evaluated using ten RAPD
595 Simcox K. D., 1993 among barley cultivars with known
The use of molecular markers to study 845-851
Phytopatholog resistance; markers; andfacilitate understanding phylogenetic
To ten ISSR primers. The of the
Bennetzen J. L. Setosphaeria turcica resistance in maize y 83: 1326- {Q2}; Setosphaeria molecular basis of Htn1 resistance in
1330 turcica; Zea mays maize to northern corn leaf blight, we
596 Varkonyi-Gasic E., 2002 The White Clover enod40 Gene Family. Plant Physiol white clover, Genes Enod40 the Htn1 locus by associated
mapped is one of the genesrestriction with
White D. W. R. Expression Patterns of Two Types of 129: 1107- Indicate, Vascular legume nodule development and has a
Genes Indicate a Role in Vascular 1118 Function putative role in general plant
597 Zacchini M., Marotta 1997 Function1 to salt stress in maize callus
Tolerance Plant Cell Polyamines · Maize · organogenesis. We have isolatedembryos
Four callus lines from immature a small
A., De Agazio M. lines with different polyamine content Reports 17: Callus culture · Salt of a self-crossed maize (Zea mays L.)
119-122 stress · RAPD hybrid cultivar were selected for "high"
598 Kilian A., Chen J., Han 1997 Towards map-based cloning of the Plant bacterial artificial The lines) and rust (two lines)
(twobarley stem"low"resistance genes
F., Steffenson B., barley stem rust resistance genes Rpg1 Molecular chromosome - cloning - Rpg1 and rpg4 were mapped in barley on
Kleinhofs A. and rpg4 using rice as an intergenomic Biology 35: disease resistance - chromosomes 1P and 7M, respectively and
599 Stark-Lorenzen P., 1997 cloning vehicle
Transfer of a grapevine stilbene synthase 187-195
Plant Cell mapping synteny
Oryza sativa · Pyricularia the syntenous rice chromosomes identified
A gene derived from grapevine (Vitis
Nelke B., Hänßler G., gene to rice (Oryza sativa L.) Reports 16: oryzae · Transformation · vinifera) coding for stilbene synthase has
Mühlbach H. P., 668-673 Stilbene synthase · been transferred into protoplasts of the
600 Thomzik J. E.Lee R. W. 2005 Transformation of alfalfa with a bacterial
Ziauddin A., Plant Cell, Phytoalexin
Agrobacterium-mediated commercially important japonica rice the
Alfalfa transformed with a portion of
H., Lo R., Shewen P., fusion gene, Mannheimia haemolyticaA1 Tissue and transformation - alfalfa - leukotoxin gene from Mannheimia
Strommer J. leukotoxin50-gfp: Response with Organ Culture C58 - somatic haemolytica was produced to test the
Agrobacterium tumefaciens strains 79: 271-278 embryogenesis - edible feasibility of developing an edible vaccine
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
601 Davies D. R., Hamilton 1993 Transformation of peas Plant Cell Peas - Seed - lateral cotyledonary meristems present in
J., Mullineaux P. Reports 12: Transformation - germinating seed were inoculated with a
180-183 Agrobacterium - non-oncogenic strain of A. tumefaciens
602 Cao M.X., Huang J.Q., 2006 Transformation of recalcitrant turfgrass Plant Cell, Meristems
Agrobacterium Tissue culture techniques, kanamycin
carrying a gene conferring medium
He Y.L., Liu S.J., cultivars through improvement of tissue Tissue and tumefaciens - pH value - composition, pH value and targeted
Wang C.L., Jiang W.Z., culture and selection regime Organ Culture selection procedure - tissues, agroinfection and co-culture
603 Wei Z.M.W. R.,
White D. 1987 Transformation of the forage legume 85: 307-316
Plant silicon element nutrition - conditions, selection process were
Agrobacterium A system was established for introducing
Greenwood D. Trifolium repens L. using binary Molecular tumefaciens - binary cloned genes into white clover (Trifolium
Agrobacterium vectors Biology 8: 461- vectors - gene transfer - repens L.). A high regeneration white
604 Ye X., Wang Z. Y., Wu 1997 Transgenic Italian ryegrass (Lolium 469 Cell
Plant kanamycin resistance - - clover genotype was transformed with
Forage and turf grasses Transgenic forage-type Italian ryegrass
X., Potrykus I., multiflorum ) plants from microprojectile Reports 16: Italian ryegrassLolium (Lolium multiflorum Lam.) plants have
Spangenberg G. bombardment of embryogenic 379-384 multiflorum - been obtained by microprojectile
605 Winicov I., Bastola D. 1999 suspension cells
Transgenic Overexpression of the Plant Physiol. Microprojectile
Alfalfa, salinity Alfin1 cDNA of embryogenic suspension
bombardment encodes a putative
R. Transcription Factor Alfin1 Enhances 120: 473-480 tolerance, transgenic transcription factor associated with NaCl
Expression of the Endogenous MsPRP2 tolerance in alfalfa (Medicago sativa L.).
606 Neuhaus G., 1987 Gene in Alfalfa and Improves Salinity
Transgenic rapeseed plants obtained by Theoretical A novel method protein binds DNA in
Embryoid microinjection The recombinantin the field of genetic a
Spangenberg G., Scheid the microinjection of DNA into and Applied - Neomycin engineering of higher plants is presented:
O. M., Schweiger H. G. microspore-derived embryoids Genetics 75: phosphotransferase II microinjection into multicellular structures
607 Sukhapinda K., Spivey Transgenic tomato (Lycopersicon Molecular and gene - root - Plant
30-36 Hairy Plant which have a high competence for plant
We transformed tomato (Lycopersicon
R., Simpson R. B., esculentum L.) transformed with a General transformatia esculentum L.) by using Agrobacterium
Shahin E. A. binary vector in Agrobacterium Genetics 206: rhizogenes containing two independent
608 Larkin P. J., Gibson J. Transgenic Non-chimeric origin with
1996 rhizogenes: white clover. Studies of 491-497
Transgenic Trifolium repens - plasmids: the improved method for white
We report an wild-type Ri-plasmid, and
M., Mathesius U., the auxin-responsive promoter, GH3, in Research 5: transformation - forage clover (Trifolium repens) transformation
Weinman J. J., Gartner root gravitropism and lateral root 325-335 legume - GUS promoter usingAgrobacterium tumefaciens. High
609 E., Hall E., Tanner G.
Hensgens L. A. M., De 1993 development stable expression ofgusA
Transient and Plant fusion - tropic response efficiencies of transgenic plant production
transformation - Transcriptional and translational fusions
Bakker E. P. H. M., fusions with rice genes in rice, barley Molecular promoters - introns - were made between the reading frame
Van Os-Ruygrok E. P., and perennial ryegrass Biology, 22: gene expression - Oryza coding for -D-glucuronidase and
610 Rueb S., Van De Mark
De Majnik J., Tanner 1998 Transient expression of maize 1101-1127
Australian sativa - HordeumB-
Anthocyanin, C1, Transient of either a constitutively
sequencesexpression of the maize
G.J., Joseph R.G., anthocyanin regulatory genes influences Journal of Peru, maize, pea, clover, anthocyanin regulatory genes, B-Peru and
Larkin P.J., Weinman anthocyanin production in white clover Plant biolistic bombardment C1, was examined in maize cell
J.J., Djordjevic M.A., and peas Physiology suspensions, and in pea and white clover
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
611 Sibov S. T., Gaspar M., 1999 Two genes control aluminum tolerance Genome 42: maize, aluminum We have identified two loci linked to
Silva M. J., Ottoboni L. in maize: 475–482 tolerance, molecular aluminum (Al) tolerance in the maize
M. M., Arruda P., Genetic and molecular mapping analyses mapping, somaclonal inbred line Cat-100-6 by means
612 Souza A. P. Kolmos E.,
Petersen K., 2006 Two MADS-box genes from perennial Physiologia variation. ryegrass,
Perennial Many plants fragment length
of restriction in temperate regions have a
Folling M., Salchert K., ryegrass are regulated by vernalization Plantarum vernalization, genes requirement for vernalization in order to
Storgaard M., Jensen and involved in the floral transition 126: 268-278 initiate the reproductive growth phase. In
613 C.S., Didion T.,
Yamada T., Tozawa Y., 2005 Use of a feedback-insensitive α subunit Molecular A selection requirement on been linked
Anthranilate synthase - 5- cereals, this system basedhas a mutant rice
Hasegawa H., Terakawa of anthranilate synthase as a selectable Breeding 14: methyltryptophan - gene for a feedback-insensitive subunit of
T., Ohkawa Y., Wakasa marker for transformation of rice and 363-373 Selectable marker - anthranilate synthase (OASA1D) was
614 K. X., Stam P.,
Qi 1998 potato locus-specific AFLP markers to
Use of Theoretical Transgenic potato --AFLP developed for the transformation of rice
Hordeum vulgare By using 25 primer combinations, 563
Lindhout P. construct a high-density molecular map and Applied markers - Genetic AFLP markers segregating in a
in barley Genetics 96: linkage map - recombinant inbred population (103 lines,
615 Xu Y., Clark M. S., 1993 Use of RAPD markers to screen somatic 376-384
Plant Cell Somatic hybrids - DNA F9) derived from L94/Vada were
Recombinant inbred The identification of somatic hybrids
Pehu E. hybrids between Solanum tuberosum and Reports 12: polymorphism - potato - between Solanum tuberosum and S.
S. brevidens 107-109 Solanum brevidens - brevidens can be carried out using
616 Carolan J. C.,Hook I. L. 2002 Using AFLP markers for species In Vitro AFLP - PCR
RAPDfingerprinting - polymerase chain reaction (PCR) and
Amplified fragment length polymorphism
I., Walsh J. J., differentiation and assessment of genetic Cellular & isothebaine - Oxytona - (AFLP) markers were employed to deteet
Hodkinson T. R. variability of in vitro-cultured Papaver Developmenta regeneration - Papaver genetic variation among species of
617 Swanston J. S., William 1999 bracteatum (section Oxytona)
Using molecular markers to determine l Biology -
Molecular Two barley quality characters assess
bracteatum - somaclonal Papever (section Oxytona) andof specific
Barley, molecular
T.B.T., Powell W., barleys most suitable for malt whisky Breeding markers, malt, distiling interest to whisky distillers are
Young G. R., Lawrence distilling 5:103-109 fermentability and production of the ethyl
618 P. E., Ramsay Murphy
Senior M. L., L., Utility of SSRs for determining genetic Crop Science, Genetic similarities, carbamate precursor, epi-heterodendrin.
Among maize (Zea maize L.) breeders,
J. P., Goodman M. M., similarities and relationships in maize 38: 1088- maize, genetic markers there is a heightened awareness of the
Stuber C. W. using an agarose gel system 1098, necessity for both maintaining genetic
619 Romagosa I., Han F., 1999 Verification of yield QTL through Molecular Hordeum vulgare - Verification crop improvement and
diversity for of putative quantitative trait
Ullrich S. E., Hayes P. realized molecular marker- assisted Breeding 5: molecular marker- loci (QTL) is an essential step towards
M., Wesenberg D. M. selection responses in a barley cross 143-152 assisted selection - implementing the use of marker-assisted
620 Polgár Zs., Preiszner J., 1993 Vigorous growth of fusion products Plant Cell hybrid vigor - potato -
quantitative trait loci - An early (MAS) in cultivar improvement.
selection identification of fusion products
Dudits D., Fehér A. allows highly efficient selection of Reports 12: Solanum - somatic was based on the presumed vigorous
interspecific potato somatic hybrids: 399-402 hybrids - species-specific growth of hybrid calluses after fusion
molecular proofs repetitive DNA between Solanum brevidens and S.
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
621 Patnaik D., Khurana P. 2001 Wheat biotechnology: A minireview EJB biotechnology, Due to the inherent difficulties associated
Electronic transgenic wheat, wheat with gene
Journal of improvement, wheat delivery into regenerable explants and
622 Downing, W.L., 1992 A Brassica napus transcript encoding a Biotechnology
Plant J 2, 685- transformation. water
Brassica napus, recovery of plantlets
A cDNA clone encoding a Brassica napus
Mauxion, F., Fauvarque, protein related to the Kunitz protease 693 stress, BnD22 drought-induced 22 kDa (BnD22) protein
M.O., Reviron, M.P., de inhibitor family accumulates upon water has been isolated and characterized. The
Weretilnyk, E., Orr, W., 1993 stress in leaves, not three related low-
623 Vienne, D., Vartanian, Characterization of in seeds. Plant Physiol Brassica napus, pBN115, BnD22 transcript accumulated in response
A cDNA clone, pBN115, encoding a low-
White, T.C., Iu, B., and temperature-regulated cDNAs from 101, 171-177. Low temperature, temperature-regulated transcript in winter
Singh, J. winter Brassica napus. Drought stress Brassica napus has been isolated. Northern
624 Murphy, D.J. 1994 Biogenesis, function, and biotechnology Prog Lipid Storage lipids, blotabstract available levels of
No analyses show that
of plant storage lipids. Res 33, 71-85. Biotechnology, Storage
lipids biogenesis
625 Krishna, P., Sacco, M., 1995 Cold-Induced Accumulation of hsp90 Plant Physiol hsp90, Brassica napus, Characterization of the expression of
Cherutti, J.F., and Hill, Transcripts in Brassica napus. 107, 915-923. mRNA, spinach hsp90 genes of Brassica napus by northern
S. blot analysis and immunoblotting showed
626 Boss, P.K., Davies, C., 1996 Expression of anthocyanin biosynthesis Plant Mol Anthocyanins, that the hsp90 mRNA and protein are
The expression of seven genes from the
and Robinson, S.P. pathway genes in red and white grapes. Biol 32, 565- Proanthocynidins, gene anthocyanin biosynthesis pathway was
569. expression regulation determined in different tissues of Shiraz
627 Boss, P.K., Davies, C., 1996 Analysis of the Expression of Plant Physiol Anthocyanin grapevines. All of the tissues contained L.
Anthocyanin synthesis in Vitis vinifera
and Robinson, S.P. Anthocyanin Pathway Genes in 111, 1059- biosynthesis Vitis cv Shiraz grape berries began 10 weeks
Developing Vitis vinifera L. cv Shiraz 1066. vinifera, Chalcone postflowering and continued throughout
628 Hincha, D.K., Meins Jr, 1997 [beta]-1,3-Glucanase Implications for
Grape Berries and the Is Cryoprotective Plant Physiol synthase ß-1,3-
Spinach, We have used Expression of seven genes
berry ripening.isolated spinach (Spinacea
F., and Schmitt, J.M. in Vitro and Is Accumulated in Leaves 114, 1077- glucanase, chitinase, oleracea L.) thylakoid membranes to
during Cold Acclimation. 1083. cryoprotection investigate the possible cryoprotective
629 Ishitani, M., Xiong, L., 1997 Genetic analysis of osmotic and cold Plant Cell 9, Arabidopsis, abiotic properties of class I [beta]-1,3-glucanase
To dissect genetically the complex
Stevenson, B., and Zhu, stress signal transduction in Arabidopsis: 1935-1949. stress, RD29A, luciferase network of osmotic and cold stress
J.K. interactions and convergence of abscisic signaling, we constructed lines of
630 Anderson, L.E., Li, 1998 The enolases of ice abscisic
acid-dependent and plant andacid- Phytochemistr Arabidopsis thaliana; Arabidopsis plants displaying enolases of
The simulated structures of the
A.D., and Stevens, F.J. Arabidopsis contain a potential y 47, 707-713. Brassicaceae; thale cress; Arabidopsis and the common ice plant
disulphide and are redox sensitive. Mesembryanthemum contain a pair of Cys residues in the
crystallinum; Aizoaceae; correct orientation to form a disulphide
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
631 Gilmour, S.J., Zarka, 1998 Low temperature regulation of the Plant J 16, CBF gene family, cold Cold-induced expression of the
D.G., Stockinger, E.J., Arabidopsis CBF family of AP2 433-442. response, COR, Arabidopsis COR (cold-regulated) genes
Salazar, M.P., transcriptional activators as an early step Arabidopsis is mediated by a DNA regulatory element
632 Houghton, J.M., and
Horvath, D.P., and 1998 in cold-induced COR gene expression.
Cloning and characterization of cold- Plant Mol Euphorbia esula,Freezing termedspurge (Euphorbia esula) is a
Leafy the CRT (C-repeat)/DRE
Olson, P.A. regulated glycine-rich RNA-binding Biol 38, 531- tolerance, COR20 perennial weed which is capable of
protein genes from leafy spurge 538. acclimating to sub-freezing temperatures.
633 Liu, Q., Kasuga, M., 1998 (Euphorbia esula L.) and comparison to
Two transcription factors, DREB1 and Plant Cell 10, Dehydration-responsive We have used the differential display
Plant growth is greatly affected by drought
Sakuma, Y., Abe, H., DREB2, with an EREBP/AP2 DNA 1391-1406. element, Low and low temperature. Expression of a
Miura, S., Yamaguchi- binding domain separate two cellular temperature stress, number of genes is induced by both
634 Shinozaki, K., and
Muhlbach, H.P. 1998 signal transduction pathways in drought-
Use of plant cell cultures in Biotechnol Cell culture, drought and low temperature, although
Plant cell cultures are being widely used
biotechnology. Annu Rev 4, Biotechnology, in scientific studies on the physiology,
113-176. Secondary metabolites, biochemistry and molecular biology of
635 Berna, A., and Bernier, 1999 Regulation by biotic and abiotic stress of Plant Mol Biol Pharmaceuticals
Cadmium, Copper, primary and secondary metabolism,
Germins and germin-like proteins (GLPs)
F. a wheat germin gene encoding oxalate 39, 539-549. Germin, Oxalate, constitute a ubiquitous family of plant
oxidase, a H2O2-producing enzyme. Oxidase,Stress, proteins that seem to be involved in many
636 Gao, Y.P., Young, L., 1999 Characterization and expression of Plant Mol Biol Response, Tobacco
Brassica napus, developmental and stress-related from a
Two aquaporin genes were isolated
Bonham-Smith, P., and plasma and tonoplast membrane 40, 635-644. Aquaporin, Water cDNA library of canola (Brassica napus
Gusta, L.V. ( aquaporins in primed seed of Brassica transportation L.). The first aquaporin, BnPIP1 of 1094
637 Medina, J., Bargues, M., 1999 napus during germination under stress
The Arabidopsis CBF gene family is Plant Physiol Transcriptional activator, bp, encoding a putative polypeptide of 287
We have identified two genes from
Terol, J., Perez-Alonso, composed of three genes encoding AP2 119, 463-470. AP2 domain, Arabidopsis that show high similarity with
M., and Salinas, J. domain-containing proteins whose Arabidopsis, CBF1 CBF1, a gene encoding an AP2 domain-
638 Smirnoff, N., and 1999 expression Isthe stress out of growing up. Nat
DREB takes regulated by low Transcription factor, containing transcriptional activator that
No abstract available
Bryant, J.A. Biotechnol 17, Abiotic stress, Gene
229-230. induction
639 Knight, H. 2000 Calcium signaling during abiotic stress Int Rev Cytol Intracellular calcium, Plants experience a wide array of
in plants. 195, 269-324. Abiotic stress, Plants environmental stimuli, not all of which are
favorable, and, unlike animals, are unable
640 Shinozaki, K., and 2000 Molecular responses to dehydration and Curr Opin Abscisic-acid- to move away from stressful system that
Recently, a major transcription
Yamaguchi-Shinozaki, low temperature: differences and cross- Plant Biol 3, independent gene controls abscisic-acid-independent gene
K. talk between two stress signaling 217-223. expression, Dehydration, expression in response to dehydration and
pathways. Low temperature stress, low temperature has been identified. The
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
641 Kizis, D., Lumbreras, 2001 Role of AP2/EREBP transcription FEBS Lett Drought, DRE cis- Crop plants are exposed to many types of
V., and Pages, M. factors in gene regulation during abiotic 498, 187-189. element, AP2/EREBP abiotic stress during their life cycle. Water
stress. transcription factor, deficit derived from drought, low
642 Knight, H., and Knight, 2001 Abiotic stress signalling pathways: Trends Plant Abscisic acid
Calcium, Signaling, temperature orahigh saltof responses toin
Plants exhibit variety concentration
M.R. specificity and cross-talk. Sci 6, 262- Kinase, Phosphatase, abiotic stresses that enable them to
267. Cross-talk, Specificity, tolerate and survive adverse conditions.
643 Savitch, L.V., Barker- 2001 Cold acclimation of Arabidopsis Planta 214, DREB, Oscillations
Arabidopsis (cold stress), The effects more about cold stress and
As we learnof short-termthe signalling
Astrom, J., Ivanov, thaliana results in incomplete recovery of 295-303. Cold acclimation, long-term cold acclimation on the light
A.G., Hurry, V., Oquist, photosynthetic capacity, associated with Photosystem I (II), reactions of photosynthesis were
644 G., Huner, N.P., and
Tolmay, V.L. 2001 an increased reduction of the chloroplast
Resistance to biotic and abiotic stress in Hereditas Reduction state of
Stress resistance, examined in vivo to assess their occur in
Poverty, hunger and malnutrition
the Triticeae. 135, 239-242. Triticaceae, Crops, many parts of the world despite the
Nutritional value enormous progress that has taken place in
645 Cattivell, L., Baldi, P., 2002 Chromosome regions and stress-related Plant Mol Biol Abiotic stress, crop, agriculture and food production in the last
Drought, low temperature and salinity are
Crosatti, C., Di Fonzo, sequences involved in resistance to 48, 649-665. QTL, gene expression the most important abiotic stress factors
N., Faccioli, P., Grossi, abiotic stress in Triticeae. limiting crop productivity. A genomic map
646 M., Mastrangelo, A.M.,
Chen, T.H., and Murata, 2002 Enhancement of tolerance of abiotic Curr Opin Betaines; Compatible The accumulation of compatible stress
of major loci and QTLs affectingsolutes,
N. stress by metabolic engineering of Plant Biol 5, solute; Environmental such as betaines, proline and sugar
betaines and other compatible solutes. 250-257. stress;Fructan; Mannitol; alcohols, is a widespread response that
647 Cheong, Y.H., Chang, 2002 Transcriptional profiling reveals novel Plant Physiol Image-ononitol; Proline;
Stress, wounding, Mechanical plants against environmental
may protect wounding not only damages
H.S., Gupta, R., Wang, interactions between wounding, 129, 661-677. Arabidopsis, plant tissues, but also provides pathways
X., Zhu, T., and Luan, pathogen, abiotic stress, and hormonal Transcriptional profiling for pathogen invasion. To understand
648 S.
Fowler, S., and Arabidopsis Arabidopsis.
2002 responses in transcriptome profiling Plant Cell 14, Freezing tolerance, CBF plant responses to wounding at a genomic
Many plants, including Arabidopsis,
Thomashow, M.F. indicates that multiple regulatory 1675-1690. regulon, Transcriptional increase in freezing tolerance in response
pathways are activated during cold profiling, Arabidopsis to low, nonfreezing temperatures, a
649 Frenette Charron, J.B., Molecular and structural the CBF cold
2002 acclimation in addition toanalyses of a FEBS Lett Wheat; Cold phenomenon corresponding to a novel
Two cDNAs known as cold acclimation.
Breton, G., Badawi, M., novel temperature stress-induced 517, 129-132. acclimation; Heat-shock; lipocalin were identified from wheat and
and Sarhan, F. lipocalin from wheat and Arabidopsis. Apolipoprotein D; Arabidopsis. The two cDNAs designated
650 Gao, M.J., Allard, G., 2002 Regulation and characterization of four Plant Mol Biol Lipocalin; Freezing
Brassica napus, BNCBF, Four for Triticum aestivum L. temperature-
Tatil orthologues of the Arabidopsis
Byass, L., Flanagan, CBF transcription factors from Brassica 49, 459-471. Transctiption factor CBF/Dreb transcriptional activator genes
A.M., and Singh, J. napus. were isolated from the winter Brassica
napus, cv. Jet neuf. All four BNCBF
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
651 Guo, Y., Xiong, L., 2002 An Arabidopsis mutation in translation Proc Natl Low temperature Low temperature regulates gene
Ishitani, M., and Zhu, elongation factor 2 causes Acad Sci U S response, arabidopsus, expression in bacteria, yeast, and animals
J.K. superinduction of CBF/DREB1 A 99, 7786- LOS1 as well as in plants. However, the signal
652 Haake, V., Cook, D., Transcription factor CBF4 is blocks the
2002 transcription factor genes but a regulator 7791. Physiol
Plant Cold, dehydration, transduction cascades mediating the low
In plants, low temperature and dehydration
Riechmann, J.L., of drought adaptation in Arabidopsis. 130, 639-648. arabidopsis, CBF4 activate a set of genes containing C-
Pineda, O., Thomashow, repeat/dehydration-responsive elements in
Hsieh, T.H., Lee, J.Z.
653 M.F., and Zhang, J.T.,( 2002 Heterology expression of the Plant Physiol Tomato, Arabidopsis, their promoter. It has been shown
In an attempt to improve stress tolerance
Yang, P.T., Chiu, L.H., Arabidopsis C-repeat/dehydration 129, 1086- CBF1, chilling stress of tomato (Lycopersicon esculentum)
Charng, Y.Y., Wang, response element binding factor 1 gene 1094. plants, an expression vector containing an
Yang, J., Chan, M.T.
654 Y.C., andand Yen, H.E. 2002 confers elevated tolerance to chilling and
Early salt stress effects on the changes Plant Physiol Ice plant, Arabidopsis, Arabidopsis C-repeat/dehydration
A technique based on Fourier transform
in chemical composition in leaves of ice 130, 1032- Fourier transform infrared (FT-IR) spectrometry was
plant and Arabidopsis. A Fourier 1042. infrered spectroscopy developed to detect the corresponding
655 Inatsugi, R., Nakamura, 2002 transform infrared spectroscopy study.
Phosphatidylcholine biosynthesis at low Plant Cell Arabidopsis, We cloned the gene composition
changes in chemical and a cDNA for a
M., and Nishida, I. temperature: differential expression of Physiol 43, phosphorylcholine second CTP: phosphorylcholine
CTP:phosphorylcholine 1342-1350. cytidylyltransferase , cytidylyltransferase (CCT, EC 2.7.7.15)
656 Jaakola, L., Maatta, K., 2002 cytidylyltransferase isogenes in
Expression of genes involved in Plant Physiol chilling
Vaccinium myrtillus, annotated in chromosome 4 by the fruit
The production of anthocyanins in
Pirttila, A.M., Torronen, anthocyanin biosynthesis in relation to 130, 729-739. Anthocyanin synthesis tissues is highly controlled at the
R., Karenlampi, S., and anthocyanin, proanthocyanidin, and developmental level. We have studied the
657 Hohtola, A.
Job, D. 2002 flavonol levels during bilberry fruit
Plant biotechnology in agriculture. Biochimie 84, Biotechnology, expression of flavonoid biosynthesis genes
Knowledge on plant genomes has
1105-1110. Transgenesis, Plants progressed during the past few years. Two
plant genomes, those of Arabidopsis
658 Knight, M.R. 2002 Signal transduction leading to low- Philos Trans R Apoaequorin, Calcium, thaliana and rice, have been sequenced.
Calcium is used by most cells to convert
temperature tolerance in Arabidopsis Soc Lond B Cytosol external signals into biochemical events
thaliana. Biol Sci 357, within the cytosol. To detect the effects of
659 Kobayashi, S., Ishimaru, 2002 Myb-related genes of the Kyoho grape ( 871-875.
Planta 215, Anthocyanin Partial cDNAs of encoding apoaequorin
cold stress, a genemyb-related regulatory
M., Hiraoka, K., and Vitis labruscana) regulate anthocyanin 924-933. biosynthesis, Fruit, myb, genes were isolated from the tetraploid
Honda, C. biosynthesis. Regulatory gene, Vitis Kyoho grape ( Vitis labruscana: V.
660 Koiwa, H., Barb, A.W., 2002 C-terminal domain phosphatase-like Proc Natl RD29A, Plant stress labrusca x V. vinifera) and the expression
Cold, hyperosmolarity, and abscisic acid
Xiong, L., Li, F., family members (AtCPLs) differentially Acad Sci U S adaptation, Arabidopsis (ABA) signaling induce RD29A
McCully, M.G., Lee, regulate Arabidopsis thaliana abiotic A 99, 10893- expression, which is an indicator of the
B.H., Sokolchik, I., Zhu, stress signaling, growth, and 10898. plant stress adaptation response. Two
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
661 Kreps, J.A., Wu, Y., 2002 Transcriptome changes for Arabidopsis Plant Physiol Global expression To identify genes of potential importance
Chang, H.S., Zhu, T., in response to salt, osmotic, and cold 130, 2129- profiling, Cold, to cold, salt, and drought tolerance, global
Wang, X., and Harper, stress. 2141. Arabidopsis expression profiling was performed on
662 J.F. J., Gilmour, S.J.,
Liu, 2002 Cold signalling associated with Physiol Plant Cold signaling, CBF1, In genotypes of Arabidopsis to stress
Arabidopsis plants subjectedthat exhibit a
Thomashow, M.F., and vernalization in Arabidopsis thaliana 114, 125-134. Abscisic acid, winter-annual flowering habit, floral
Van Nocker, S. does not involve CBF1 or abscisic acid. Arabidopsis induction in response to extended cold
663 Llorente, F., Lopez- 2002 A novel cold-inducible gene from Plant J 32, 13- Peroxidase, Abiotic exposure from Arabidopsis mediated by
A cDNA (vernalization) is corresponding
Cobollo, R.M., Catala, Arabidopsis, RCI3, encodes a peroxidase 24. stress, Arabidpsis, to a new cold-inducible gene, RCI3 (for
R., Martinez-Zapater, that constitutes a component for stress Dehydration telerance, Rare Cold Inducible gene 3), was isolated.
664 J.M., and Salinas, J.
Meyer, J.E., Pepin, 2002 tolerance. production from Vaccinium
Anthocyanin J Biotechnol Salt tolerance, Freezing
Agitation, Aggregation, Isoelectric focusing electrophoresis and
Physical microenvironmental parameters
M.F., and Smith, M.A. pahalae: limitations of the physical 93, 45-57. Bioreactor, Irradiance, conducive to production of flavonoids in
microenvironment. Flavonoids, Pigment vitro from continuous Vaccinium pahalae
665 Rapacz, M. 2002 Cold-deacclimation of oilseed rape Ann Bot Brassica napus var. The aim of cultures were to establish the
suspension this work was examined first in
(Brassica napus var. oleifera) in response (Lond) 89, 543-oleifera, cold role of factors that may trigger elongation
to fluctuating temperatures and 549. deacclimation, growth in the dehardening response,
666 Roberts, M.R., Salinas, 2002 photoperiod. and the response to
14-3-3 proteins Plant Mol Biol elongation growth,
14-3-3 protein, Abiotic namelyproteins function as regulators of a
14-3-3 temperature during daylight,
J., and Collinge, D.B. abiotic and biotic stress. 50, 1031- stress, Biotic stress, wide range of target proteins in all
1039. Defence Responses, eukaryotes by effecting direct protein-
667 Ruelland, E., Cantrel, 2002 Activation of phospholipases C and D is Plant Physiol Plant pathogen,
Phosphoinositide protein interactions. Primarily, by a cold
The signaling events generated
C., Gawer, M., Kader, an early response to a cold exposure in 130, 999- signaling pathway, cold exposure are poorly known in plants. We
J.C., and Zachowski, A. Arabidopsis suspension cells. 1007. stress, Phosphatidic acid, were interested in checking the possible
668 Sakuma, Y., Liu, Q., 2002 DNA-binding specificity of the Biochem Signaling cis-acting
DRE/CRT, activation of enzymes of the
DRE/CRT is a cis-acting element that is
Dubouzet, J.G., Abe, H., ERF/AP2 domain of Arabidopsis Biophys Res element, Gel mobility involved in gene expression responsive to
Shinozaki, K., and DREBs, transcription factors involved in Commun 290, shift assay drought and low-temperature stress in
669 Yamaguchi-Shinozaki,
Scholthof, K.B., Plant virus gene cold-inducible gene
2002 dehydration- andvectors: biotechnology 998-1009. (N Biotechnology, Plant
Genet Eng higher plants. DREB1A/CBF3 and
No abstract available
Mirkov, T.E., and applications in agriculture and medicine. Y) 24, 67-85. transformation, Plant
Scholthof, H.B. virus vectors
670 Stefanowska, M., Kuras, 2002 Low temperature-induced modifications Ann Bot Brassica napus var. Acclimation of winter oilseed plants in the
M., and Kacperska, A. in cell ultrastructure and localization of (Lond) 90, 637-oleifera, Cell cold (i.e. at temperatures >0 degrees C)
phenolics in winter oilseed rape 645. ultrastructure, Cold followed by short exposure to sub-lethal
(Brassica napus L. var. oleifera L.) acclimation, Phenolics, freezing temperatures resulted in
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
671 Stitt, M., and Hurry, V. 2002 A plant for all seasons: alterations in Curr Opin Arabidopsis; cold Low temperatures lead to the inhibition of
photosynthetic carbon metabolism Plant Biol 5, acclimation; sucrose synthesis and photosynthesis. The
during cold acclimation in Arabidopsis. 199-206. Photosynthesis; Sucrose biochemical and physiological adaptations
672 Taylor, N.J., and 2002 Microparticle bombardment as a tool in DNA Cell synthesis; Phosphate
Agricultural of plants to low temperaturestechnology
Microparticle bombardment include the
Fauquet, C.M. plant science and agricultural Biol 21, 963- biotechnology, has evolved as a method for delivering
biotechnology. 977. Microparticle exogenous nucleic acids into plant cells
673 Taji, T., Ohsumi, C., 2002 Important roles of drought- and cold- Plant J 29, 417- bombardment,
Drought stress, and is a commonly employed technique in
Raffinose family oligosaccharides (RFO)
Iuchi, S., Seki, M., 426.
inducible genes for galactinol synthase in Transgenic plants accumulating during seed development are
Kasuga, M., Kobayashi, stress tolerance in Arabidopsis thaliana. Galactonol synthase thought to play a role in the desiccation
674 M., Yamaguchi- Li,
Welti, R., Li, W., 2002 Profiling membrane lipids in plant stress Electrospray Galactinol,
J Biol Chem (GolS), RFO,ionization A sensitive seeds. However, the
tolerance ofapproach based on functions
M., Sang, Y., Biesiada, responses. Role of phospholipase D 277, 31994- tandem mass electrospray ionization tandem mass
H., Zhou, H.E., alpha in freezing-induced lipid changes 32002. spectrometry, membrane spectrometry has been employed to profile
675 Rajashekar, C.B., K.Y.
Wi, S.J., and Park, 2002 in Arabidopsis.
Antisense expression of carnation cDNA Polyamines, Cold
Mol Cells 13, lipid profile, Putrescinem membrane lipidpolyamines species in
The amount of molecular (such as
encoding ACC synthase or ACC oxidase 209-220. Spermidine, Spermine, putrescine, spermidine, and spermine)
enhances polyamine content and abiotic Senescence increased under environmental stress
676 Xiong, L., Lee, H., 2002 stress tolerance in transgenic tobacco by
Repression of stress-responsive genes Proc Natl FIERY2 (FRY2), Low temperature, drought, and technology
conditions. We used transgenic high
Ishitani, M., Tanaka, Y., FIERY2, a novel transcriptional Acad Sci U S Genetic screen, Abiotic salinity induce the expression of many
Stevenson, B., Koiwa, regulator in Arabidopsis. A 99, 10899- stress, Arabidopsis plant genes. To understand the
677 H., Bressan, R.A.,
Xiong, L., Schumaker, 2002 Cell signaling during cold, drought, and 10904. 14 Plant stress response,
Plant Cell mechanisms for the transcriptional
Low temperature, drought, and high
K.S., and Zhu, J.K. salt stress. Suppl, S165- Low temperature, salinity are common stress conditions that
183. Drought, High salinity adversely affect plant growth and crop
678 Xu, C., Hartel, H., 2002 The pgp1 mutant locus of Arabidopsis Plant Physiol Phosphatidylglycerol, production. The cellularaand molecular
Phosphatidylglycerol is ubiquitous
Wada, H., Hagio, M., encodes a 129, 594-604. Phospholipids, Cold phospholipid that is also present in the
Yu, B., Eakin, C., and phosphatidylglycerolphosphate synthase acclimation, photosynthetic membranes of plants.
679 Benning, C.
Zheng, B., Halperin, T., 2002 with impaired activity.
Characterization of Chloroplast Clp Physiol Plant Photosynthetic
Proteolysis, ATP- Multiple independent lines of evidence of
The ATP-dependent Clp protease is one
Hruskova- proteins in Arabidopsis: Localization, 114, 92-101. dependent Clp protease, the newly identified proteolytic systems in
Heidingsfeldova, O., tissue specificity and stress responses. Molecular chaperones plant organelles that incorporate the
Zhu, J., Gong, Clarke,
680 Adam, Z., and Z., 2002 OSM1/SYP61: a syntaxin protein in Plant Cell 14, T-DNA insertion, Salt activity of molecular chaperones to target
To identify the genetic loci that control
Zhang, C., Song, C.P., Arabidopsis controls abscisic acid- 3009-3028. tolerance, Genetic salt tolerance in higher plants, a large-
Damsz, B., Inan, G., mediated and non-abscisic acid-mediated screen, Arabidopsis, scale screen was conducted with a
Koiwa, H., Zhu, J.K., responses to abiotic stress. Syntaxin bialaphos marker-based T-DNA
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
681 Albrecht, V., Weinl, S., 2003 The calcium sensor CBL1 integrates Plant J 36, 457- CLB1, Stress response, Calcium ions represent both an integrative
Blazevic, D., D'Angelo, plant responses to abiotic stresses. 470. Drought stress, Cold signal and an important convergence point
C., Batistic, O., stress, Salt stress, of many disparate signaling pathways.
682 Kolukisaoglu, U., Bock,
Bae, M.S., Cho, E.J., 2003 Analysis of the Arabidopsis nuclear Plant J 36, 652- Calcium sgnaling
Proteomics, Arabidopsis, The nucleus is the subcellular calcineurin
Calcium-binding proteins, likeorganelle
Choi, E.Y., and Park, proteome and its response to cold stress. 663 Nuclear proteins, Cold that contains nearly all the genetic
O.K. stress, 2D gel information required for the regulated
683 Boyce, J.M., Knight, H., 2003 The sfr6 mutant of Arabidopsis is Plant J 34, 395- electrophoresis, MALDI-
Acclimation, sfr6, expression of cellular proteins. In this a
The sfr6 mutant of Arabidopsis displays
Deyholos, M., defective in transcriptional activation via 406. DREB, Cold, Drought, deficit in freezing tolerance after cold
Openshaw, M.R., CBF/DREB1 and DREB2 and shows Arabidopsis acclimation. We previously observed that
684 Galbraith, D.W.,
Breton, G., Danyluk, J., 2003 Expression profiling stress.
sensitivity to osmoticand bioinformatic Plant Physiol Cold acclimation, wheat, the transcripts of three cold-, ABA- and
Cold acclimation is a multigenic trait that
Charron, J.B., and analyses of a novel stress-regulated 132, 64-74. COR413 allows hardy plants to develop efficient
Sarhan, F. multispanning transmembrane protein tolerance mechanisms needed for winter
685 Catala, R., Santos, E., 2003 family from cereals and Arabidopsis.
Mutations in the Ca2+/H+ transporter Plant Cell 15, Calcium, Cold Transient increases in the genetic nature
survival. To determinecytosolic free
Alonso, J.M., Ecker, CAX1 increase CBF/DREB1 expression 2940-2951. acclimation, CBF/DREB calcium concentration ([Ca2+]cyt) are
J.R., Martinez-Zapater, and the cold-acclimation response in essential for plant responses to a variety of
Chinnusamy, V., J.
686 J.M., and Salinas,Ohta, 2003 Arabidopsis.
ICE1: a regulator of cold-induced Genes Dev 17, Cold signaling; freezing environmental stimuli, including low
Cold temperatures trigger the expression
M., Kanrar, S., Lee, transcriptome and freezing tolerance in 1043-1054. tolerance; bHLH protein; of the CBF family of transcription factors,
B.H., Hong, X., Arabidopsis. CBF regulation; which in turn activate many downstream
687 Agarwal, M., and Zhu,
Dubouzet, J.G., 2003 OsDREB genes in rice, Oryza sativa L., Plant J 33, 751- transcriptome factors,
Transcription The transcription factors and freezing
genes that confer chillingDREBs/CBFs
Sakuma, Y., Ito, Y., encode transcription activators that 763. DREB, DRE regulon, specifically interact with the dehydration-
Kasuga, M., Dubouzet, function in drought-, high-salt- and cold- rice, transgenic responsive element/C-repeat (DRE/CRT)
Gao, Miura, S., Seki,
688 E.G., M.J., Schafer, 2003 A novel protein expression.
responsive gene from Brassica napus has Plant J 33, Arabidopsis, abiotic
Histone deacetylase, To identify factors that motif:
cis-acting element (coreinteract with
U.A., Parkin, I.A., a putative KID domain and responds to 1073-1086. Brassica napus, Yeast histone deacetylase (HDAC) in Brassica
Hegedus, D.D., Lydiate, low temperature. two hybrid napus, a yeast two-hybrid library was
689 D.J., and Hannoufa, A.
Hazen, S.P., Wu, Y., 2003 Gene expression profiling of plant Funct Integr Abiotic stress, gene screened using the Arabidopsis HDA19 as
Expression profiling has become an
and Kreps, J.A. responses to abiotic stress. Genomics 3, expression profiling important tool to investigate how an
105-111. organism responds to environmental
690 Hegedus, D., Yu, M., 2003 Molecular characterization of Brassica Plant Mol Brassica napus, EST, changes. Plants, being sequence tag the
Subtractive expressed sessile, have
Baldwin, D., Gruber, napus NAC domain transcriptional Biol 53, 383- Wounding, Transcription analysis and screening of cDNA libraries
M., Sharpe, A., Parkin, activators induced in response to biotic 39 factors derived from Brassica napus leaves
I., Whitwill, S., and and abiotic stress subjected to mechanical wounding, flea
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
691 Yubero-Serrano, E.M., 2003 Identification of a strawberry gene cDNA and genomic clones encoding a
J Exp Bot 54, ABA, gene regulation,
Moyano, E., Medina- encoding a non-specific lipid transfer 1865-1877. strawberry (Fragariaxananassa cv.
LTPs, strawberry fruit,
Escobar, N., Munoz- protein that responds to ABA, wounding stress Chandler) non-specific lipid transfer
692 Blanco, J., and J.Y.,
Jung, S.H., Lee, 2003 and cold stress.
Use of SAGE technology to reveal protein (Fxaltp gene) withinisolated and
The genes expressed were an organism
Plant Mol Biol Serial analysis of gene
and Lee, D.H. changes in gene expression in determine its biological characteristics.
52, 553-567. expression, Cold stress,
Arabidopsis leaves undergoing cold Arabidopsis Various internal or external factors can
693 Li, R., Rimmer, R., Yu, 2003 stress.Brassica napus polygalacturonase
Two Planta 217, Polygalacturonase modulate these gene expression patterns,
Plants encode a distinct set of
M., Sharpe, A.G., inhibitory protein genes are expressed at 299-308. polygalacturonase inhibitory proteins
inhibitory proteins,
Seguin-Swartz, G., different levels in response to biotic and (PGIPs) that function to inhibit
Leucine-rich repeats,
694 Lydiate, D., and Yao, J., 2003 abiotic stresses.
Lu, Y., Sun, X., Isolation and expression of cold- DNA Seq 14, Brassica napus It has been established that produced
polygalacturonase enzymes changes inby
Brassica pekinensis,
Chai, Y., Zhao, X., regulated cDNA from Chinese cabbage 219-222. gene expression occur during cold
Arabidopsis, COR15,
Zhang, L., Song, J., (Brassica pekinensis). Cold stress acclimation in a wide range of plants.
695 Pang, Y.Z., Wu, W.,X., 2003 The BOTRYTIS SUSCEPTIBLE1 gene
Mengiste, T., Chen, and The we present a cellular mechanisms
Heremolecular andnovel cDNA encoding a
Plant Cell 15, Plant resistance, Botrytis
Salmeron, J., and encodes an R2R3MYB transcription 2551-2565. cinerea, T-DNA involved in plant resistance to the
Dietrich, R. factor protein that is required for biotic necrotrophic fungal pathogen Botrytis
insertional allele,
696 Mine, T., Hiyoshi, T., CIP353 encodes responses in
2003 and abiotic stressan AP2/ERF-domain Plant Cell Arabidopsis gene,
Cold inducible cinerea and theirCIP353 cDNA, which
We isolated the genetic control are
Kasaoka, K., and protein in potato (Solanum tuberosum Physiol 44, 10- Solanum tuberosum,encodes a novel cold-inducible protein,
Ohyama, A. L.) and responds slowly to cold stress. 15. from cold-stored tubers of potato
Transcription factor,
697 Morandini, P., and 2003 Plant biotechnology and breeding: allied Trends Plant Late-embryogenesis- (Solanum tuberosum L.). The level of
Plant metabolic engineering is lagging
Biotechnology, Plant
Salamini, F. for years to come. Sci 8, 70-75. metabolism, Breding behind other kinds of genetic manipulation
of plants. Creating metabolic pathways or
698 Provart, N.J., Gil, P., 2003 Gene expression phenotypes of Plant Physiol Arabidopsis improving their yieldsabiotic stress that
Chilling is a common requires a better
Chen, W., Han, B., Arabidopsis associated with sensitivity 132, 893-906. transcriptome, Chilling leads to economic losses in agriculture. By
Chang, H.S., Wang, X., to low temperatures. resistance, Gene comparing the transcriptome of
699 and Zhu, T.
Ratcliffe, O.J., 2003 Analysis of the Arabidopsis MADS Vernalization response, Arabidopsis under normal (22 degrees C)C
Plant Cell 15, expression patern The Arabidopsis FLOWERING LOCUS
Kumimoto, R.W., AFFECTING FLOWERING gene 1159-1169. Floral represor, (FLC) gene is a key floral repressor in the
Wong, B.J., and family: MAF2 prevents vernalization by FLOWERING LOCUS maintenance of a vernalization response.
700 Riechmann, J.L.
Segui-Simarro, J.M., 2003 short periods of cold.
Hsp70 and Hsp90 change their Brassica Arabidopsis
J Struct Biol C (FLC),napus; A vernalization-sensitive genetic
In stress treatment of 32 degrees C for at
Testillano, P.S., and expression and subcellular localization 142, 379-391. Microspore least 8h was able to change the
Risueno, M.C. after microspore embryogenesis embryogenesis; Hsp70; gametophytic program of the microspore,
induction in Brassica napus L. Hsp90; Immunoelectron switching it to embryogenesis in Brassica
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
701 Shen, Y.G., Zhang, 2003 An EREBP/AP2-type protein in Triticum Theor Appl DRE-binding protein, We characterize one transcription factor of
W.K., He, S.J., Zhang, aestivum was a DRE-binding Genet 106, One-hybrid, Abiotic DRE-binding proteins (TaDREB1) that
J.S., Liu, Q., and Chen, transcription factor induced by cold, 923-930. stresses, Triticum was isolated from a drought-induced
702 S.Y. Y.G., Zhang,
Shen, Characterization of a stress.
2003 dehydration and ABADRE-binding Theor Appl aestivumhortensis, DRE-
Atriplex L. cDNA library of wheat (Triticum aestivum
Environmental stresses, such as salinity,
W.K., Yan, D.Q., Du, transcription factor from a halophyte Genet 107, binding protein, drought and cold, can induce the
B.X., Zhang, J.S., Liu, Atriplex hortensis. 155-161. Transcription factor, Saltexpression of a large amount of genes.
703 Q., and Chen, S.Y.
Shinozaki, K., 2003 Regulatory network of gene expression Curr Opin stress, PEG
Drought stress, Cold Among these are many transcription
Molecular and genomic studies have
Yamaguchi-Shinozaki, in the drought and cold stress responses. Plant Biol 6, stress, Genetic studies, shown that several genes with various
K., and Seki, M. 410-417. Gene induction functions are induced by drought and cold
704 Streb, P., Aubert, S., 2003 Reversibility of cold- and light-stress J Exp Bot 54, Antioxidants, Cold- stresses, and that various transcription
Two high mountain plants Soldanella
Gout, E., and Bligny, R. tolerance and accompanying changes of 405-418. acclimation, Malate, alpina (L.) and Ranunculus glacialis (L.)
metabolite and antioxidant levels in the NMR-spectroscopy, were transferred from their natural
705 Takagi, T., Nakamura, 2003 two high mountain plant species
The leaf-order-dependent enhancement Plant Cell Photoinhibition,
Freezing tolerance, The central part of different growth
environment to twocold-acclimated
M., Hayashi, H., of freezing tolerance in cold-acclimated Physiol 44, Arabidopsis, Rosette rosettes of Arabidopsis thaliana L.
Inatsugi, R., Yano, R., Arabidopsis rosettes is not correlated 922-931. leaves, Transcription (ecotype Columbia) survived freezing at
Tyagi, A.K., I.
706 and Nishida, and 2003 Plant molecular biology of
with the transcript levelsandthe cold- Adv Biochem factor
Biotechnology, After temperatures of the recombinant
lower the beginning better than did those at
Khurana, J.P. biotechnology research in the post- Eng Transgenic plants, Plant DNA era in the mid-1970s, researchers in
recombinant DNA era. Biotechnol 84, transformation systems India started to make use of the new
707 Uemura, M., Warren, 2003 Freezing sensitivity in the sfr4 mutant of 91-121.
Plant Physiol technology to understand the structure of
Protoplasts were tested to determine
Freezing sensitivity, sfr4,
G., and Steponkus, P.L. Arabidopsis is due to low sugar content 131, 1800- Soluble sugars whether the freezing sensitivity of the sfr4
and is manifested by loss of osmotic 1807. (sensitive to freezing) mutant of
708 Vlachonasios, K.E., 2003 responsiveness.
Disruption mutations of ADA2b and Plant Cell 15, ADA, SAGA, Histone Arabidopsis was due to the mutant's
We previously identified Arabidopsis
Thomashow, M.F., and GCN5 transcriptional adaptor genes 626-638. acetyltransferase, CBF, genes homologous with the yeast ADA2
Triezenberg, S.J. dramatically affect Arabidopsis growth, Arabidpsis, Cold- and GCN5 genes that encode components
709 Wang, Y.J., Zhang, 2003 development, and gene expression. is Theor Appl
A rice transcription factor OsbHLH1 Oryza sativa, OsbHLH1, of thestress adversely affects plant growth
regulated genes Cold ADA and SAGA histone
Z.G., He, X.J., Zhou, involved in cold stress response. Genet 107, Transcription factor, and crop production. Some plants express
H.L., Wen, Y.X., Dai, 1402-1409. Cold stress a series of cold-responsive genes during
710 J.X., Zhang, J.S., and
Zarka, D.G., Vogel, 2003 Cold induction of Arabidopsis CBF Plant Physiol DREB, CBF, cold Arabidopsis to reduce and damage of
The acclimation CBF1, 2, the 3 genes
J.T., Cook, D., and genes involves multiple ICE (inducer of 133, 910-918. Arabidopsis, (also known as DREB1b, c, and a,
Thomashow, M.F. CBF expression) promoter elements and Transcriptional activator respectively) encode transcriptional
a cold-regulatory circuit that is activators that have a central role in cold
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
711 Beck, E.H., Heim, R., 2004 Plant resistance to cold stress: J Biosci 29, Cold acclimation of This introductory overview shows that
and Hansen, J. ( mechanisms and environmental signals 449-459. plants; environmental cold, in particular frost, stresses a plant in
triggering frost hardening and signals; frost hardening; manifold ways and that the plant's
712 Chinnusamy, V., 2004 dehardening.
Molecular genetic perspectives on cross- J Exp Bot 55, photoperiod; adaptive
Abiotic stress, The perception injurious stresses and
response, being of abiotic or adaptive, must
Schumaker, K., and talk and specificity in abiotic stress 225-236. response, expression signal transduction to switch on adaptive
Zhu, J.K. signalling in plants. profiling, genetic responses are critical steps in determining
713 Cook, D., Fowler, S., 2004 A prominent role for the CBF cold Proc Natl analysis, signal
Arabidopsis, cold the survival and reproduction of plants
The Arabidopsis CBF cold response
Fiehn, O., and response pathway in configuring the low- Acad Sci U S response, Cvi-1, CBF, pathway has a central role in cold
Thomashow, M.F. temperature metabolome of Arabidopsis. A 101, 15243- metabolome acclimation, the process whereby plants
714 Eastmond, P.J. 2004 Glycerol-insensitive Arabidopsis 15248. 37, 617- Glyycerol, Glycerol
Plant J The aim of this study was to in response
increase in freezing toleranceinvestigate
mutants: gli1 seedlings lack glycerol 625. kinase, Germination, the process of glycerol catabolism in
kinase, accumulate glycerol and are more Abiotic stress, germinating Arabidopsis seed. A genetic
715 Eliasova, A., Repcak, 2004 resistant to abiotic stress.
Quantitative changes of secondary Z Naturforsch Arabidopsis secondary
Abiotic stress, The responses of young isolate glycerol-
screen was performed toplants of diploid
M., and Pastirova, A. metabolites of Matricaria chamomilla by [C] 59, 543- metabolites, Matricaria and tetraploid Matricaria chamomilla
abiotic stress. 548. chamomilla cultivars to abiotic stress were studied.
716 Gimalov, F.R., 2004 Initial stages of low-temperature Biochemistry Calcium channels, The course of quantitative changes of
Some stages of low-temperature signal
Baymiev, A., induction of cabbage cold shock protein (Mosc) 69, calcium, membrane transduction causing appropriate cold
Matniyazov, R.T., gene csp5. 575-579. fluidity, cold regulation stress response in plants are considered.
Hund, A., A.V., and
717 Chemeris, Fracheboud, 2004 QTL controlling root and shoot traits of Theor Appl Maize, QTL, Cold- The effects of Ca2+ chelators, Ca2+crucial
The improvement of early vigour is
Y., Soldati, A., maize seedlings under cold stress. Genet 109, related trait for the adaptation of maize (Zea mays L.)
Frascaroli, E., Salvi, S., 618-629. to the climatic conditions of central
718 and Stamp, P. T.,
Imin, N., Kerim, 2004 Effect of early cold stress on the Proteomics 4, Rice, Cold stress, Europe and the northern Mediterranean,
Male reproductive development in rice
Rolfe, B.G., and maturation of rice anthers. 1873-1882. Proteomics (Oryza sativa Linnaeus is very sensitive to
Weinman, J.J. various forms of environmental stresses
719 Kaplan, F., Kopka, J., 2004 Exploring the temperature-stress Plant Physiol Metabolomic including low temperature. Here, we
Metabolic profiling analyses were
Haskell, D.W., Zhao, metabolome of Arabidopsis. 136, 4159- profiling,Heat shock, performed to determine metabolite
W., Schiller, K.C., 4168. Freezing tolerance temporal dynamics associated with the
720 Gatzke, N., Sung, D.Y.,
Kasuga, M., Miura, S., 2004 A combination of the Arabidopsis Plant Cell DREB1A/CBF3, induction of acquired thermotolerance in
The transcription factor DREB1A/CBF3
Shinozaki, K., and DREB1A gene and stress-inducible Physiol 45, Drought stress tolerance, specifically interacts with the dehydration
Yamaguchi-Shinozaki, rd29A promoter improved drought- and 346-350. Low temperature stress responsive element (DRE/CRT) and
K. low-temperature stress tolerance in tolerance induces expression of genes involved in
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
721 Kasukabe, Y., He, L., 2004 Overexpression of spermidine synthase Plant Cell Polyamines, Spermidine Polyamines play pivotal roles in plant
Nada, K., Misawa, S., enhances tolerance to multiple Physiol 45, synthase, Cucurbita defense to environmental stresses.
Ihara, I., and Tachibana, environmental stresses and up-regulates 712-722. ficifolia However, stress tolerance of genetically
722 S. H.J., Hyun, Y.,
Kim, A genetic link of various stress-regulated
2004 the expression between cold responses Nat Genet 36, C-repeat/ dehydration- engineered plants for polyamine
Cold induces expression of a number of
Park, J.Y., Park, M.J., and flowering time through FVE in 167-171. responsive element, genes that encode proteins that enhance
Park, M.K., Kim, M.D., Arabidopsis thaliana. freezing tolerance, tolerance to freezing temperatures in
Kitashiba, Moon, J.,
723 Lee, M.H.,H., Ishizaka, 2004 Expression of a sweet cherry Dehydration RD29A,
J Plant Physiol Arabidopsis, responsive plants. A cis-acting element responsive to
Dehydration responsive element binding
T., Isuzugawa, K., DREB1/CBF ortholog in Arabidopsis 161, 1171- element binding protein protein 1 (DREB1)/C-repeat binding
Nishimura, K., and confers salt and freezing tolerance. 1176. 1 (DREB1)/C-repeat factor (CBF) induces the expression of
724 Suzuki, T.K., Reski, R.,
Kroemer, 2004 Abiotic stress response in the moss Plant Cell Rep binding factor (CBF),
Physcomitrella patens, The mechanisms plants use in
many stress-inducible genesto adapt to
and Frank, W. Physcomitrella patens: evidence for an 22, 864-870. Gene regulation, abiotic stress have been widely studied in
evolutionary alteration in signaling Signaling pathway a number of seed plants. Major research
725 Lee, J., Finn, C.E., and 2004 pathways in land plants.
Comparison of anthocyanin pigment and J Agric Food Vaccinium; huckleberry; has been focused on the isolation of stress-
Two huckleberry species, Vaccinium
Wrolstad, R.E. other phenolic compounds of Vaccinium Chem 52, anthocyanins; phenolics; membranaceum and Vaccinium ovatum,
membranaceum and Vaccinium ovatum 7039-7044. antioxidant activity native to Pacific Northwestern North
726 Maestre, F.T., and Do positive Pacific Northwest of North
2004 native to theinteractions increase with Proc Biol Sci Semi-arid environment, America, were evaluated for their total,
Theoretical models predict that the
Cortina, J. abiotic stress? A test from a semi-arid 271 Suppl 5, Stipa tenacissima, relative importance of facilitation and
steppe. S331-333. Pistacia lentiscus, competition may vary inversely across
727 Maruyama, K., Sakuma, 2004 Identification of cold-inducible Plant J 38, 982- Competetive interactions
Abiotic stress, gradients of abiotic factor DREB/CBF
The transcriptional stress. However, these
Y., Kasuga, M., Ito, Y., downstream genes of the Arabidopsis 993. Transcription factor, (dehydration-responsive element/C-repeat-
Seki, M., Goda, H., DREB1A/CBF3 transcriptional factor Downstream genes, binding) specifically interacts with the
728 Shimada, Y., Yoshida,
McLaren, J.S., and Plant two microarray systems.
2004 using biotechnology and feedstock Appl Biochem Stress tolerance
Geneticaly modified dehydration-responsive element (DRE)/C-
No abstract available
Thomas, S.R. genomics. Biotechnol plants, Biotechnology,
113-116, 1163- Protein engineering
729 Mukhopadhyay, A., Vij, 2004 Overexpression of a zinc-finger protein 1165.Natl
Proc Zink-finger protein, Cold Stress perception and signal transduction
S., and Tyagi, A.K. gene from rice confers tolerance to cold, Acad Sci U S tolerance, Salt stress, leading to tolerance involve a complex
dehydration, and salt stress in transgenic A 101, 6309- Tobacco interplay of different gene products. We
730 Novillo, F., Alonso, CBF2/DREB1C is a negative regulator 6314.Natl
2004 tobacco. Proc CBF/DREB1, CBF/DREB1 the isolation and
describe here (C-repeat-binding
J.M., Ecker, J.R., and of CBF1/DREB1B and CBF3/DREB1A Acad Sci U S Arabidopsis thaliana, factor/dehydration responsive element-
Salinas, J. expression and plays a central role in A 101, 3985- Freezing tolerance binding factor 1) genes encode a small
stress tolerance in Arabidopsis. 3990. family of transcriptional activators that
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
731 Puhakainen, T., Hess, 2004 Overexpression of multiple dehydrin Plant Mol Biol Arabidopsis, Dehydrin, To elucidate the contribution of dehydrins
M.W., Makela, P., genes enhances tolerance to freezing 54, 743-753. Low temperature (DHNs) to freezing stress tolerance in
Svensson, J., Heino, P., stress in Arabidopsis. tolerance, Transgenic Arabidopsis, transgenic plants
732 and Palva, E.T.
Rohde, P., Hincha, 2004 Heterosis in the freezing tolerance of Plant J 38, 790- plants
Arabidopsis thaliana, overexpressing multiple DHN genes were
Heterosis is broadly defined as the
D.K., and Heyer, A.G. crosses between two Arabidopsis 799. Cold acclimation, increased vigour of hybrids in comparison
thaliana accessions (Columbia-0 and Compatible solutes, COR to their parents. In the model plant
733 Sakamoto, H., 2004 C24) that show differences in non-
Arabidopsis Cys2/His2-type zinc-finger Plant Physiol genes, Gene expression,
Cys-2/His-2-type zinc- Arabidopsis thaliana, athat have two
ZPT2-related proteins significant
Maruyama, K., Sakuma, proteins function as transcription 136, 2734- finger motif, canonical Cys-2/His-2-type zinc-finger
Y., Meshi, T., Iwabuchi, repressors under drought, cold, and high- 2746. Transcription factors, motifs in their molecules are members of a
734 M., Shinozaki, K., and
Seki, M., Satou, M., 2004 salinity stress conditions.
RIKEN Arabidopsis full-length (RAFL) cDNA localization
J Exp Bot 55, Proteinmicroarray, Cold family of plant transcription factors.the
Full-length cDNAs are essential for To
Sakurai, T., Akiyama, cDNA and its applications for expression 213-223. stress, Drought stress, correct annotation of genomic sequences
K., Iida, K., Ishida, J., profiling under abiotic stress conditions. Full-length cDNA, Gene and for the functional analysis of genes
735 Nakajima, M., Enju, A.,
Serrato, A.J., Perez- 2004 A novel NADPH thioredoxin reductase, J Biol Chem expression, High-salinity
Thioredoxin reductase, and their products. 155,144 RIKEN
Plants contain three thioredoxin systems.
Ruiz, J.M., Spinola, localized in the chloroplast, which 279, 43821- Chloroplast, Oryza sativa Chloroplast thioredoxins are reduced by
M.C., and Cejudo, F.J. deficiency causes hypersensitivity to 43827. ferredoxin-thioredoxin reductase, whereas
736 Sharma, P., and Deswal, 2004 abiotic stress in Arabidopsis thaliana.
Detection and characterization of Plant Physiol Brassica juncea; the cytosolic and mitochondrialdetecting
Here we describe a method for
R. calcineurin-like activity in Brassica Biochem 42, Calcineurin-like activity calcineurin-like activity in Brassica juncea
juncea and its activation by low 579-584. assay; Low temperature seedlings. The activity was standardized
737 Takezawa, D., and 2004 temperature.
Calmodulin-binding proteins in Biochem stress; R II
Abscisic acid; with respect to all the assay components.
Plant responses to environmental stresses
Minami, A. bryophytes: identification of abscisic Biophys Res Bryophytes; Ca2+; are mediated in part by signaling
acid-, cold-, and osmotic stress-induced Commun 317, Calmodulin; Freezing processes involving cytosolic Ca2+ and a
738 Tasseva, G., de Virville, Changes in the novel membrane-bound
2004 genes encodingendoplasmic reticulum 428-436.
Plant Physiol tolerance; Ion
Cold acclimation; Ca(2+)-binding protein, known to induce
Cold is an abiotic stress calmodulin.
J.D., Cantrel, C., lipid properties in response to low Biochem 42, Heterologous cDNA- changes in membrane lipid composition.
Moreau, F., and temperature in Brassica napus. 811-822. array; Lipid However, there is only limited information
Teige, M., A.
739 Zachowski,Scheikl, E., 2004 The MKK2 pathway mediates cold and Mol Cell 15, unsaturation; Membrane
Mitogen-activated on the differential reactivity to
The Arabidopsis mitogen-activated protein
Eulgem, T., Doczi, R., salt stress signaling in Arabidopsis. 141-152. protein kinase kinase, kinase (MAPK) kinase 2 (MKK2) and the
Ichimura, K., Shinozaki, Cold stress, Yeast two downstream MAPKs MPK4 and MPK6
740 K., Dangl, J.L., and
Vannini, C., Locatelli, 2004 Overexpression of the rice Osmyb4 gene Plant J 37, 115- hybrid, Arabidopsis
Myb transcription factor, wereexpression of the gene Osmyb4,
The isolated by functional
F., Bracale, M., increases chilling and freezing tolerance 127. Abiotic stress, Cold detected at low level in rice (Oryza sativa)
Magnani, E., Marsoni, of Arabidopsis thaliana plants. tolerance, Oryza sativa, coleoptiles grown for 3 days at 29 degrees
M., Osnato, M., Arabidopsis thaliana, C, is strongly induced by treatments at 4
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
741 Wang, W., Vinocur, B., 2004 Role of plant heat-shock proteins and Trends Plant Protein aggregation, Heat-Abiotic stresses usually cause protein
Shoseyov, O., and molecular chaperones in the abiotic Sci 9, 244- shock proteins dysfunction. Maintaining proteins in their
Altman, A. stress response. 252. (Hsps)/chaperones, functional conformations and preventing
742 Wiese, J., Kranz, T., and 2004 Induction of pathogen resistance in Plant Biol Abiotic stress
Hordeum vulgare, the aggregation of non-native proteins are
Enhanced resistance of barley (Hordeum
Schubert, S. barley by abiotic stress. (Stuttg) 6, 529- Powdery mildew, Plant vulgare L. cv. Ingrid) against barley
536. resistance powdery mildew (Blumeria graminis f. sp.
743 Zhang, X., Fowler, S.G., 2004 Freezing-sensitive tomato has a Plant J 39, 905- Arabidopsis, Tomato, Many race A6) was in freezing tolerance
hordeiplants increaseinduced by abiotic
Cheng, H., Lou, Y., functional CBF cold response pathway, 919. CBF/DREB1, Cold in response to low temperature, a process
Rhee, S.Y., Stockinger, but a CBF regulon that differs from that acvlimation, CBF known as cold acclimation. In
744 E.J., and Thomashow,
Zhu, J., Shi, H., Lee, 2004 of freezing-tolerant Arabidopsis.
An Arabidopsis homeodomain Proc Natl Stress-response screen, Arabidopsis, cold acclimation involves
regulon, Microarray To investigate essential components
B.H., Damsz, B., Cheng, transcription factor gene, HOS9, Acad Sci U S Arabidopsis, Stress mediating stress signaling in plants, we
S., Stirm, V., Zhu, J.K., mediates cold tolerance through a CBF- A 101, 9873- signaling, RD29A initiated a large-scale stress response
Zuther, E., P.M., and
745 Hasegawa, Buchel, K., The role of pathway.
2004 independentraffinose in the cold 9878. Lett
FEBS promoter
Cold acclimation; In many plants raffinose plants
screen using Arabidopsisfamily carrying
Hundertmark, M., Stitt, acclimation response of Arabidopsis 576, 169-173. Freezing tolerance; oligosaccharides are accumulated during
M., Hincha, D.K., and thaliana. Galactinol synthase; cold acclimation. The contribution of
746 Heyer, A.G.
Alonso-Blanco, C., 2005 Genetic and molecular analyses of Plant Physiol Raffinose family
Arabidopsis, raffinose accumulation to freezing
Natural variation for freezing tolerance is
Gomez-Mena, C., natural variation indicate CBF2 as a 139, 1304- Acclimatization, CBF, a major component of adaptation and
Llorente, F., Koornneef, candidate gene for underlying a freezing 1312. QTL geographic distribution of plant species.
Amtmann, A., and
747 M., Salinas, J.,Bohnert, 2005 tolerance quantitative trait locus in
Abiotic stress and plant genome Plant Physiol Abiotic stress, genome However, little is known about the genes
The remarkable ability of plants to adapt
H.J., and Bressan, R.A. evolution. Search for new models. 138, 127-130. evolution, Arabidopsis to many different adverse environments is
a fascinating process. Research into the
748 Bradford, K.J., Van 2005 Regulating transgenic crops sensibly: Nat Crops, Plant breeding, physiology and metabolism of so-called
The costs of meeting regulatory
Deynze, A., Gutterson, lessons from plant breeding, Biotechnol 23, Genetic ingineering, requirements and market restrictions
N., Parrott, W., and biotechnology and genomics. 439-444. Phenotype guided by regulatory criteria are
749 Strauss, S.H. Lindlof,
Brautigam, M., 2005 Generation and analysis of 9792 EST BMC Plant Oat, EST, Transcript substantial impediments to the
BACKGROUND: Oat is an important
A., Zakhrabekova, S., sequences from cold acclimated oat, Biol 5, 18. clustering, Transcription crop in North America and northern
Gharti-Chhetri, G., Avena sativa. factors, CBF Europe. In Scandinavia, yields are limited
750 Olsson, B., and Olsson,
Cao, S., Ye, M., and 2005 Involvement of GIGANTEA gene in the Plant Cell Rep Arabidopsis, Cold stress, by the fact that oat cannot be used as a
The Arabidopsis GIGANTEA (GI) gene
Jiang, S. regulation of the cold stress response in 24, 683-690. CBF, Flowering has been shown to regulate several
Arabidopsis. developmental processes, including
photoperiod-mediated flowering,
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
751 Criel, B., Panta, A., 2005 Cryopreservation and abiotic stress Commun Cryopreservation, potato, No abstract available
Carpentier, S., Renaut, tolerance in potato: a proteomic Agric Appl abiotic stress, proteomics
J., Swennen, R., Panis, approach. Biol Sci 70, 83-
752 B., and Hausman, J.F.
Cui, S., Huang, F., 2005 A proteomic analysis of cold stress 86.
Proteomics 5, Rice, cold adaptation, Using proteomic analysis, an investigation
Wang, J., Ma, X., responses in rice seedlings. 3162-3172. MALDI TOF MS aimed at a better understanding of the
Cheng, Y., and Liu, J. molecular adaptation mechanisms of cold
753 Das, S., Hussain, A., 2005 Cloning of Brassica napus phospholipase Planta 220, Brassica napus, stress was carried out in rice (Oryza
The cloning and identification of full-
Bock, C., Keller, W.A., C2 (BnPLC2), phosphatidylinositol 3- 777-784. phosphatidylinositol- length cDNA fragments coding for the
and Georges, F. kinase (BnVPS34) and specific phospholipase, Brassica napus phosphatidylinositol-
754 Davletova, S., Schlauch, 2005 phosphatidylinositol synthase1
The zinc-finger protein Zat12 plays a Plant Physiol phosphatidylinositol 3- specific phospholipase C2 (BnPLC2),
Zink fingers protein, Plant acclimation to environmental stress
K., Coutu, J., and central role in reactive oxygen and 139, 847-856. Arabidopsis, biotic and is controlled by a complex network of
Mittler, R. abiotic stress signaling in Arabidopsis. abiotic stress regulatory genes that compose distinct
755 Deng, Z., Pang, Y., 2005 A novel ABA-dependent dehydrin DNA Seq 16, ABA; Bndhn ERD10; A new dehydrin ERD10 In contrast to
stress-response regulons.gene was cloned
Kong, W., Chen, Z., ERD10 gene from Brassica napus. 28-35. Brassica napus; and characterized from Brassica napus
Wang, X., Liu, X., Pi, dehydrin; RACE (designated as Bndhn ERD10). The full-
756 Y., Sun, X., and Tang,
Dixon, R.A. 2005 Plant biotechnology kicks off into the Trends Plant Biotechnology, genetic length cDNA of Bndhn ERD10 was 1114
No abstract available
21st century. Sci 10, 560- engineering
561.
757 Fiorani, F., Umbach, 2005 The alternative oxidase of plant Plant Physiol Alternative oxidase, The alternative oxidase (AOX) pathway of
A.L., and Siedow, J.N. mitochondria is involved in the 139, 1795- mitochondria, plant mitochondria uncouples respiration
acclimation of shoot growth at low 1805. Arabidopsis from mitochondrial ATP production and
758 Gong, Z., Dong, C.H., 2005 temperature. A study of Arabidopsis
A DEAD box RNA helicase is essential Plant Cell 17, RNA helicase, Cold may ameliorate plant performance under
An Arabidopsis thaliana mutant,
Lee, H., Zhu, J., Xiong, for mRNA export and important for 256-267. tolerance, Cryophyte cryophyte, was isolated and found to have
L., Gong, D., Stevenson, development and stress responses in an enhanced cold stress-induction of the
759 B., and Zhu, J.K.
Hannah, M.A., Heyer, 2005 Arabidopsis.
A global survey of gene regulation Many regulator of cold tolerance, as
PLoS Genet 1, Freezing tolerence, Gene mastertemperate plant species suchC-
A.G., and Hincha, D.K. during cold acclimation in Arabidopsis e26 expression, Arabidopsis Arabidopsis thaliana are able to increase
thaliana. . thaliana their freezing tolerance when exposed to
760 Hong, J.P., and Kim, 2005 Isolation and functional characterization Planta 220, Capsicim annuum, Through the use temperatures
low, nonfreezingof subtractive in a process
W.T. of the Ca-DREBLP1 gene encoding a 875-888. Dehydration, pCa-DSRs hybridization analysis, we have identified
dehydration-responsive element binding- 14 partial cDNA clones (pCa-DSRs) that
factor-like protein 1 in hot pepper are rapidly induced by dehydration in hot
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
761 Hwang, E.W., Kim, 2005 Expression profiles of hot pepper J Biosci 30, Abiotic stresses; In an attempt to determine a cold defense
K.A., Park, S.C., Jeong, (Capsicum annum) genes under cold 657-667. Capsicum annuum; cold- mechanism in plants, we have attempted
M.J., Byun, M.O., and stress conditions. stress regulated genes; to characterize changes occurring in the
762 Kwon, H.B.
Yamaguchi-Shinozaki, 2005 Organization of cis-acting regulatory Trends Plant microarray
Transcriptional expression regulatory elements are
cis-Acting of cold-regulated transcript
K., and Shinozaki, K. elements in osmotic- and cold-stress- Sci 10, 88-94. regulation, ABRE, stress- important molecular switches involved in
responsive promoters. inducible genes the transcriptional regulation of a dynamic
763 Yano, R., Nakamura, 2005 Starch-related alpha-glucan/water Plant Physiol Starch degradation, network of gene activities controlling
Cold-induced soluble sugar accumulation
M., Yoneyama, T., and dikinase is involved in the cold-induced 138, 837-846. Freezing tolerance, enhances the degree of freezing tolerance
Nishida, I. development of freezing tolerance in Arabidopsis in various cold-hardy plants including
764 Yoshida, K. 2005 Arabidopsis.
Plant biotechnology--genetic engineering J Biosci Transgenic plant, Hyper- Arabidopsis (Arabidopsis thaliana), where
Plants not only provide food to humans
to enhance plant salt tolerance. Bioeng 94, osmotic stres, Ectoine; and animals, but also provide a large
585-590. Na+-ATPase; K+-Na+ number of non-food products of industrial
765 Young, L.W., Cross, 2005 A high- and low-temperature inducible Genome 48, co-transporter; K+ and and chemical importance. Moreover, they
Promoter function, Low Transcriptional activity of a 573-bp
R.H., Byun-McKay, Arabidopsis thaliana HSP101 promoter 547-555. temperature stress, High fragment of HSP101 (At1g74310)
S.A., Wilen, R.W., and located in a nonautonomous mutator-like temperature stress; incorporated into a Mutator-like element
Kaplan, F., and P.C.
766 Bonham-Smith, Guy, 2005 element.
RNA interference of Arabidopsis beta- Plant J 44, 730- Arabidopsis HSP101,
Biochemistry, (MULE) transposon was investigated in
It has been suggested that beta-amylase
C.L. amylase8 prevents maltose accumulation 743. Environmental stress, (BMY) induction during temperature
upon cold shock and increases sensitivity Metabolism, Starch, stress in Arabidopsis could lead to starch-
767 Kwak, K.J., Kim, Y.O., 2005 of PSII photochemical efficiency to
Characterization of transgenic Glycine-rich stress
J Exp Bot 56, Temperature RNA- dependent maltose accumulation, and that
A glycine-rich RNA-binding protein4 (GR-
and Kang, H. Arabidopsis plants overexpressing GR- 3007-3016. binding protein, RNA- RBP4), one of the eight GR-RBP family
RBP4 under high salinity, dehydration, binding protein, stress, members in Arabidopsis thaliana, was
768 Lee, S.C., Lee, M.Y., 2005 or cold stress. of an abiotic stress-
Characterization Mol Cells 19, transgenic Arabidopsis investigated for its stress-related
Oryza sativa, Dehydrin, A full-length 1.1 kb cDNA, designated
Kim, S.J., Jun, S.H., An, inducible dehydrin gene, OsDhn1, in rice 212-218. Drought, Cold stress Oryza sativa Dehydrin 1 (OsDhn1), was
G., and Kim, S.R. (Oryza sativa L.). isolated from the seed coat of rice. The
769 Massonneau, A., 2005 Maize cystatins respond to Biochim Comprehensive is hydrophilic and has
Cystatin; Kernel; Maize; deduced protein searches of maize EST
Condamine, P., developmental cues, cold stress and Biophys Acta Stress; Zea mays data allowed us to identify 8 novel Corn
Wisniewski, J.P., Zivy, drought. 1729, 186- Cystatin (CC) genes in addition to the
770 M., and Rogowsky, M., 2005 Cold acclimation in bryophytes: low-
Minami, A., Nagao, 199. 220,
Planta Physcomitrella patens, Bryophyte known growing in areas in
previously species genes CCI and CCII.
Ikegami, K., Koshiba, temperature-induced freezing tolerance 414-423. Freezing tolerance, which temperatures fall below zero in
T., Arakawa, K., in Physcomitrella patens is associated winter are likely to have tolerance to
Fujikawa, S., and with increases in expression levels of freezing stress. It is well established in
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
771 Moller, B.L. 2005 Plant biotechnology in Europe: a Trends Plant Biotechnology, No abstract available
changing environment and landscape. Sci 10, 562- Agriculture, Transgenic
564. crops
772 Moloney, M., and 2005 Plant biotechnology. Curr Opin Transgenic crops, No abstract available
Peacock, J. Plant Biol 8, Molecular biology,
163-164. Biotechnology
773 Montagu, M.V. 2005 Technological milestones from plant Trends Plant Agriculture, Transgenic No abstract available
science to agricultural biotechnology. Sci 10, 559- crops, Plant
560. transformation
774 Morsy, M.R., Almutairi, 2005 The OsLti6 genes encoding low- Gene 344, 171- Cold-regulated genes, Rice (Oryza sativa L.) is sensitive to
A.M., Gibbons, J., Yun, molecular-weight membrane proteins are 180. Membrane injury, chilling particularly at early stages of
S.J., and de Los Reyes, differentially expressed in rice cultivars Hydrophobic proteins, seedling establishment. Two closely
775 B.G. T., Pan, L.,
Ogawa, 2005 with contrasting sensitivity to low
Functional analysis of Arabidopsis Plant Physiol Cold tolerance, Genetic
Ethylene-responsive related genes(Arabidopsis thaliana)
Arabidopsis (OsLti6a, OsLti6b), which
Kawai-Yamada, M., Yu, ethylene-responsive element binding 138, 1436- element binding protein ethylene-responsive element binding
L.H., Yamamura, S., protein conferring resistance to Bax and 1445. (AtEBP), Arabidopsis, protein (AtEBP) gene was isolated as a
Oh, S.J., T., Kitajima,
776 Koyama, Song, S.I., 2005 abiotic stress-induced plant cell death.
Arabidopsis CBF3/DREB1A and ABF3 Plant Physiol Abiotic stress
CBF3/DREB1A, Oryza suppressor of Bax-induced cell death by
Rice (Oryza sativa), a monocotyledonous
Kim, Y.S., Jang, H.J., in transgenic rice increased tolerance to 138, 341-351. sativa, Arabidopsis plant that does not cold acclimate, has
Kim, S.Y., Kim, M., abiotic stress without stunting growth. thaliana, Cold evolved differently from Arabidopsis
777 Kim, Y.K., Nahm, B.H.,
Rensink, W., Hart, A., 2005 Analyzing the potato abiotic stress Genome 48, Acclimation
Potato, Solanaceae, (Arabidopsis thaliana), which cold
To further increase our understanding of
Liu, J., Ouyang, S., transcriptome using expressed sequence 598-605. Abiotic stress responses in potato to abiotic stress and
Zismann, V., and Buell, tags. the potato transcriptome in general, we
778 C.R.
Rensink, W.A., Iobst, 2005 Gene expression profiling of potato Funct Integr Potato, Gene expression generated 20 756 expressed sequence tags
In order to identify genes involved in
S., Hart, A., Stegalkina, responses to cold, heat, and salt stress. Genomics 5, profilig, Abiotic stress abiotic stress responses in potato,
S., Liu, J., and Buell, 201-207. seedlings were grown under controlled
779 C.R. J., Ainley, W.M.,
Rice, 2005 Plant-made vaccines: biotechnology and Anim Health Plant-made, Vaccine, The use of plants as production (4
conditions and subjected to coldsystems
and Shewen, P. immunology in animal health. Res Rev 6, Immunogenecity, Animal for vaccine antigens has been actively
199-209. health investigated over the last 15 years. The
780 Saidi, Y., Finka, A., 2005 Controlled expression of recombinant Plant Mol Biol Acetyl salicylivc acid, original research focused on the value of
The ability to express tightly controlled
Chakhporanian, M., proteins in Physcomitrella patens by a 59, 697-711. Actin cytosceleton, amounts of endogenous and recombinant
Zryd, J.P., Schaefer, conditional heat-shock promoter: a tool Benzyl alcohol, GFP- proteins in plant cells is an essential tool
D.G., and Goloubinoff, for plant research and biotechnology. talin, ß-glucuronidase, for research and biotechnology. Here, the
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
781 Savitch, L.V., Allard, 2005 The effect of overexpression of two Plant Cell CBF/DREB1, The effects of overexpression of two
G., Seki, M., Robert, Brassica CBF/DREB1-like transcription Physiol 46, Transcription factors, Brassica CBF/DREB1-like transcription
L.S., Tinker, N.A., factors on photosynthetic capacity and 1525-1539. Brassica napus factors (BNCBF5 and 17) in Brassica
Suzuki, M., Shinozaki,
782 Huner, N.P.,Ketterling, 2005 freezing tolerance in Brassica napus.
Quantitative statistical analysis of cis- Plant Physiol Cis-regulatory napus cv.developed a simple quantitative
We have Westar were studied. In addition
M.G., and McCarty, regulatory sequences in ABA/VP1- and 139, 437-447. sequences, MotifFinder, computational approach for objective
D.R. CBF/DREB1-regulated genes of Abiotic stress analysis of cis-regulatory sequences in
783 Vashisht, A.A., and 2005 Arabidopsis.
Cold stress-induced pea DNA helicase Arch Biochem Abiotic stress; DEAD- Helicases of ubiquitous genes. The
promoters are coregulatedmolecular motor
Tuteja, N. 47 is homologous to eIF4A and inhibited Biophys 440, box protein; DNA- proteins that play important role in
by DNA-interacting ligands. 79-90. dependent ATPase, maintaining the genome integrity and thus
784 Vashisht, A.A., 2005 Cold- and salinity stress-induced bipolar Abiotic stress, Plant
Plant J 44, 76- Pisum sativum;DEAD- involved in plant growth and development.
Helicases are involved in the metabolism
Pradhan, A., Tuteja, R., pea DNA helicase 47 is involved in 87. box protein, DNA- of nucleic acid; this is very sensitive to the
and Tuteja, N. protein synthesis and stimulated by dependent ATPase, abiotic stresses that reduce plant growth
785 Vergnolle, C., Vaultier, 2005 phosphorylation with protein kinase C.
The cold-induced early activation of Phospholipase plant
Plant Physiol Pisum sativum,D, and productivity. However, the molecular
In plants, a temperature downshift
M.N., Taconnat, L., phospholipase C and D pathways 139, 1217- Phospholipase C, Cold represents a major stress that will lead to
Renou, J.P., Kader, J.C., determines the response of two distinct 1233. signal, CBF pathway the induction or repression of many genes.
786 Zachowski, A., and P.,
Viljanen, K., Kylli, 2005 clusters of genes in Arabidopsis cell
Anthocyanin antioxidant activity and J Agric Food Protein oxidation; The antioxidant activities has to be
Therefore, the cold signal of anthocyanins
Hubbermann, E.M., partition behavior in whey protein Chem 53, Anthocyanins; and anthocyanin fractions isolated from
Schwarz, K., and emulsion. 2022-2027. Antioxidants; Partition; blackcurrants, raspberries, and
787 Heinonen, M.
Vinocur, B., and 2005 Recent advances in engineering plant Curr Opin Emulsion; Salinity,
Crop loss, Berries lingonberries were investigated in whey
Abiotic stresses, especially salinity and
Altman, A. tolerance to abiotic stress: achievements Biotechnol 16, Drought stress, Plant drought, are the primary causes of crop
and limitations. 123-132. adaptation loss worldwide. Plant adaptation to
788 Vogel, J.T., Zarka, 2005 Roles of the CBF2 and ZAT12 Plant J 41, 195- Arabidopsis, Cold Summary The stresses is dependent upon
environmental CBF cold response pathway
D.G., Van Buskirk, transcription factors in configuring the 211. acclimaiton, has a prominent role in cold acclimation.
H.A., Fowler, S.G., and low temperature transcriptome of CBF/DREB1, Freezing The pathway includes action of three
Wei, G., Pan, Y., Lei, J., 2005 Arabidopsis.
789 Thomashow, M.F. Molecular cloning, phylogenetic J Biochem tolerance, Low
ABA, DREB, One- A cDNA that was rapidly induced 3 (also
transcription factors, CBF1, 2 and upon
and Zhu, Y.X. analysis, expressional profiling and in Mol Biol 38, hybrid, Stress, abscisic acid, cold, drought, mechanical
vitro studies of TINY2 from Arabidopsis 440-446. Transcription factor wounding and to a lesser extent, by high
790 Wheeler, D.L., Smith- 2005 thaliana.
Plant genome resources at the national Plant Physiol Biological databases, salinity treatment, was isolated from
The National Center for Biotechnology
White, B., Chetvernin, center for biotechnology information. 138, 1280- National Center for Information (NCBI) integrates data from
V., Resenchuk, S., 1288. Biotechology more than 20 biological databases through
Dombrowski, S.M., Information, Plant a flexible search and retrieval system
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
791 Wong, C.E., Li, Y., 2005 Expressed sequence tags from the Yukon Plant Mol Biol Thellungiella salsuginea, Thellungiella salsuginea (also known as T.
Whitty, B.R., Diaz- ecotype of Thellungiella reveal that gene 58, 561-574. Drought stress, Salt halophila) is a close relative of
Camino, C., Akhter, expression in response to cold, drought stress, Cold stress Arabidopsis that is very tolerant of
792 S.R., Brandle, J.E.,
Agarwal, M. 2006 and salinity shows little overlap. factor
A R2R3 type MYB transcription J Biol Chem MYB, Transcription Cold temperatures trigger the and may be
drought, freezing, and salinityexpression
Hao, Y. is involved in the cold regulation of CBF 281: 37636-45 factors, CBF, Cold of the CBF family of transcription factors,
Kapoor, A. genes and in acquired freezing tolerance Regulation which in turn activate many downstream
793 Dong, C. H. Agarwal,
Agarwal, P.K., 2006 Role of DREB transcription factors in Plant Cell Rep DREB, CBF, Cold genes that confer freezing tolerance to
Abiotic and biotic stresses negatively
P., Reddy, M.K., and abiotic and biotic stress tolerance in 25, 1263- acclimation influence survival, biomass production
Sopory, S.K. . plants. 1274. and crop yield. Being multigenic as well
794 Alcazar, R., Marco, F., 2006 Involvement of polyamines in plant Biotechnol Abiotic stress, Gene Environmental stresses is challenge
as a quantitative trait, it areathe major to
Cuevas, J.C., Patron, response to abiotic stress. Lett 28, 1867- expression, Mutants, cause of crop loss worldwide. Polyamines
M., Ferrando, A., 1876. Polyamines, Transgenic are involved in plant stress responses.
795 Carrasco, P., Tiburcio,
Amme, S., Matros, A., 2-D DIGE, Arabidopsis, However, the precise role(s)2-Dpolyamine
2006 Proteome analysis of cold stress response J Exp Bot 57, plants A proteome study based on of gel
Schlesier, B., and Mock, in Arabidopsis thaliana using DIGE- 1537-1546. cold stress, differential in-electrophoresis was performed in order to
H.P. technology. gel electrophoresis, ESI- analyse the cold-stress response of
796 Armstrong, A.F., Logan, 2006 Heterogeneity of plant mitochondrial Plant Cell MS/MS, fluorescent
Confocal microscopy, Arabidopsis plants. The emphasis was to
In this study, we investigated whether
D.C., Tobin, A.K., responses underpinning respiratory Environ 29, Cytochrome oxidase, changes in mitochondrial abundance,
O'Toole, P., and Atkin, acclimation to the cold in Arabidopsis 940-949. Epidermic, Mesophyll, ultrastructure and activity are involved in
797 O.K. D., Roy, S.,
Bagchi, 2006 thaliana leaves.
Safety and whole-body antioxidant Mol Cell Respiration,
Berry, Anthocyanins, the respiratory cold acclimation response
Edible berry extracts rich in anthocyanins
Patel, V., He, G., potential of a novel anthocyanin-rich Biochem 281, Glutathione, Hyperbaric possess a broad spectrum of therapeutic,
Khanna, S., Ojha, N., formulation of edible berries. 197-209. oxygen, in vivo, pharmacologic and anti-carcinogenic
798 Phillips, C., Ghosh, S.,
Bohnert, H.J., Gong, Q., 2006 Unraveling abiotic stress tolerance Curr Opin OptiBerry, Oxidative
Abiotic stress, properties. Six berry extractsmetabolism
Homeostasis, a set-value for (wild
Li, P., and Ma, S. mechanisms--getting genomics going. Plant Biol 9, Transcription factor, cs, under optimal conditions, is rarely
180-188. Proteomics, achieved by plants because of the cost
799 Bonham-Smith, P.C., 2006 Non-lethal freezing effects on seed Planta 224, Transcriptomics seed,
Brassica, Green exerted by external stress factors: climatic,
The effects of a non-lethal freezing stress
Gilmer, S., Zhou, R., degreening in Brassica napus. 145-154. Freezing, ABA, on chlorophyll content, moisture level and
Galka, M., and Abrams, Chlorophyll distribution, and abscisic acid (ABA)
800 S.R.
Borner, A. 2006 Preservation of plant genetic resources Biotechnol J Speciment Bank, Thousands examined in siliques and seeds
levels were of years ago humans began
in the biotechnology era. 1, 1393-1404. Preservation, Genetic domesticating crops as a food source.
resources Among the wild germplasm available, they
selected those that were best adapted for
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
801 Cao, Y., Song, F., 2006 Molecular characterization of four rice J Plant PhysiolBiotic and abiotic stress; We isolated and identified four rice genes,
Goodman, R.M., and genes encoding ethylene-responsive 163, 1167- Disease resistance OsBIERF1 to OsBIERF4 (Oryza sativa
Zheng, Z. transcriptional factors and their 1178. response; ERF benzothiadiazole (BTH)-induced ethylene
802 Chen, F., Li, Q., Sun, The rice 14-3-3 gene family and and
2006 expressions in response to biotic its DNA Res 13, transcriptional factors;
Rice; 14-3-3 family; responsive transcriptional factors (ERF))
14-3-3 proteins function as major
L., and He, Z. involvement in responses to biotic and 53-63. Biotic and abiotic stress; regulators of primary metabolism and
abiotic stress. Expression regulation; cellular signal transduction in plants.
803 Compton, M.E. 2006 Use of statistics in plant biotechnology. Methods Mol Subcellular localization
Plant biotechnology, However,and experimental design are
Statistics their involvement in plant
Biol 318, 145- Plant tissue culture, important tools for the plant
163. Statistical analysis biotechnologist and should be used when
804 de las Mercedes Dana, 2006 Transgenic tobacco plants Plant Physiol Tobacco, resistance to planning and conducting experiments as
Genes encoding defense-related proteins
M., Pintor-Toro, J.A., overexpressing chitinases of fungal 142, 722-730. pathogens, chitinase have been used to alter the resistance of
and Cubero, B. origin show enhanced resistance to biotic plants to pathogens and other
805 Dong, C.H., Agarwal, 2006 and abiotic stress agents. plant cold
The negative regulator of Proc Natl Cold stress, RING finger environmental challenges, butare mediated
Plant responses to cold stress no single
M., Zhang, Y., Xie, Q., responses, HOS1, is a RING E3 ligase Acad Sci U S protein by a transcriptional cascade, in which the
and Zhu, J.K. that mediates the ubiquitination and A 103, 8281- transcription factor ICE1 and possibly
806 Egawa, C., Kobayashi, Differential of ICE1.
2006 degradation regulation of transcript 8286. Genet
Genes Abiotic stress, related proteins activate the expression of
A number of cold responsive (Cor)/late
F., Ishibashi, M., accumulation and alternative splicing of Syst 81, 77-91 Alternative splicing, embryogenesis abundant (Lea) genes are
Nakamura, T., a DREB2 homolog under abiotic stress Cor/Lea genes, DREB2 induced by both low temperature (LT) and
Fujita, M., C., and
807 Nakamura, Fujita, Y., Crosstalk in common wheat
2006 conditionsbetween abiotic and biotic Curr Opin transcription factor,
Biotic and Abiotic stress, dehydration.evolved a wide range of
Plants have To understand the molecular
Noutoshi, Y., stress responses: a current view from the Plant Biol 9, Signaling pathways mechanisms to cope with biotic and
Takahashi, F., points of convergence in the stress 436-44 abiotic stresses. To date, the molecular
808 Narusaka, Y.,
Goulas, E., Schubert, 2006 signaling networks. and stromal
The chloroplast lumen Plant J 47, 720- Difference gel mechanisms that are involved in eachby
Cold acclimation and over-wintering
M., Kieselbach, T., proteomes of Arabidopsis thaliana show 73 electrophoresis, herbaceous plants are energetically
Kleczkowski, L.A., differential sensitivity to short- and long- Proteomics, Matrix expensive and are dependent on functional
809 Gardestrom, P.,
Grennan, A.K. Abiotic stress to low An "omic"
2006 term exposure in rice. temperature. Abiotic laser desorption
Plant Physiol assisted stress, Rice, plastid metabolism. To understand how
Abiotic stress can impose limitations on
approach. 140, 1139- Environmental stress crop productivity and also limit land
1141. available for farming, often in regions that
810 Hannah, M.A., Wiese, 2006 Natural genetic variation of freezing Plant Physiol Arabidopsis, Cold can ill afford suchis a primary determinant
Low temperature constraints, thus
D., Freund, S., Fiehn, tolerance in Arabidopsis. 142, 98-112. tolerance, Meabolomics, of plant growth and survival. Using
O., Heyer, A.G., and Transcriptomics accessions of Arabidopsis (Arabidopsis
Hincha, D.K. thaliana) originating from Scandinavia to
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811 Hendrickson, L., 2006 Cold acclimation of the Arabidopsis FEBS Lett Cold acclimation; We compared the thylakoid membrane
Vlckova, A., Selstam, dgd1 mutant results in recovery from 580, 4959- Digalactosyl–diacylglyce composition and photosynthetic properties
E., Huner, N., Oquist, photosystem I-limited photosynthesis. 4968. rol; Lipid; of non- and cold-acclimated leaves from
812 G., and Hurry, V. M.,
Houde, M., Belcaid, 2006 Wheat EST resources for functional BMC Monogalactosyl–diacylgl
Wheat, Freezing BACKGROUND: Wheat is an of
the dgd1 mutant (lacking >90%excellent
Ouellet, F., Danyluk, J., genomics of abiotic stress. Genomics 7, tolerance, EST species to study freezing tolerance and
Monroy, A.F., 149. other abiotic stresses. However, the
813 Dryanova, A., Gulick,
Langridge, P., Paltridge, 2006 Functional genomics of abiotic stress Brief Funct Cereals,Abiotic stress, sequence of the wheat genome has not
Abiotic stresses such as extreme
N., and Fincher, G. tolerance in cereals. Genomic Cold, Drought, Salinity temperatures, low water availability, high
Proteomic 4, salt and mineral deficiencies or toxicities
814 Loyola-Vargas, V.M. 2006 Plant biotechnology and tissue culture 343-354. Mol
Methods Biotechnology, Plant severely diminish productivity of cereal
No abstract available
resources on the internet. Biol 318, 379- tissue culture, Database
384. analysis
815 Mittler, R. 2006 Abiotic stress, the field environment and Trends Plant Abiotic stress, Farmers and breeders have long known
stress combination. Sci 11, 15-19. Transgenic corps, Stress that often it is the simultaneous occurrence
co-occurrence of several abiotic stresses, rather than a
816 Mittler, R., Kim, Y., 2006 Gain- and loss-of-function mutations in FEBS Lett Abiotic stress, C2H2- particular stress condition, that is most
C(2)H(2)-zinc finger proteins that contain
Song, L., Coutu, J., Zat10 enhance the tolerance of plants to 580, 6537- zinc finger; EAR motif, the EAR repressor domain are thought to
Coutu, A., Ciftci- abiotic stress. 6542. Stress tolerance, Zat10, play a key role in modulating the defense
Oono, Y., Seki, H.,
817 Yilmaz, S., Lee,M., 2006 Monitoring expression profiles of Funct Integr Arabidopsis thaliana
Deacclimation, Cold response of plants to abiotic stress.
A comparative analysis of gene expression
Satou, M., Iida, K., Arabidopsis genes during cold Genomics 6, acclimation, Recovery profiles during cold acclimation and
Akiyama, K., Sakurai, acclimation and deacclimation using 212-234. from cold stress, Cold deacclimation is necessary to elucidate the
Owttrim, M.,
818 T., Fujita,G.W. RNA microarrays.
2006 DNA helicases and abiotic stress. Nucleic Acids stress helicase, Abiotic
RNA molecular mechanisms of cold stress
RNA helicases function as molecular
Res 34, 3220- stress, Cold-induced motors that rearrange RNA secondary
3230. RNA helicase structure, potentially performing roles in
819 Rajashekar, C.B., Zhou, 2006 Suppression of phospholipase Dalpha1 J Plant Physiol Antisense suppression, any cellular process involving RNA plays
Phospholipase D (PLD; EC 3.1.4.4)
H.E., Zhang, Y., Li, W., induces freezing tolerance in 163, 916-926. Arabidopsis thaliana, an important role in membrane lipid
and Wang, X. Arabidopsis: response of cold-responsive Cold-responsive genes, hydrolysis and in mediation of plant
820 Reyes-Diaz, M., Ulloa, 2006 genes and osmolyte accumulation. by J Exp Bot 57,
Arabidopsis thaliana avoids freezing COR genes, Freezing
Apoplastic fluid, responses to thaliana (L.) Heynh. has been
Arabidopsis a wide range of stresses.
N., Zuniga-Feest, A., supercooling. 3687-3696. Arabidopsis thaliana, described as a freezing-tolerant species
Gutierrez, A., Gidekel, Chlorophyll based on freezing-resistance assays.
M., Alberdi, M., fluorescence, Cold Nonetheless, this type of experiment does
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
821 Rosso, D., Ivanov, A.G., 2006 IMMUTANS does not act as a stress- Plant Physiol Terminal oxidase, Stress- IMMUTANS (IM) encodes a thylakoid
Fu, A., Geisler-Lee, J., induced safety valve in the protection of 142, 574-585. induced mitochondrial membrane protein that has been
Hendrickson, L., the photosynthetic apparatus of alternative oxidase hypothesized to act as a terminal oxidase
822 Geisler, M., Stewart, G., 2006 Arabidopsis during steady-state case
Sandermann, H. Plant biotechnology: ecological Trends Plant (AOX), Arabidopsis
Roundup-Ready plants, that couples the reduction of O(2) to the
The emerging field of molecular ecology
studies on herbicide resistance. Sci 11, 324- Molecular ecology, aims to improve the ecological
328. Transgenic crop predictability of transgenic crop plants.
823 Swindell, W.R. 2006 The association among gene expression Genetics 174, Transcriptional profiling, The most widely cultivated lines are
The identification and analysis of genes
responses to nine abiotic stress 1811-1824. Gene expression, Stress exhibiting large expression responses to
treatments in Arabidopsis thaliana. tolerance several different types of stress may
824 Tondelli, A., Francia, 2006 Mapping regulatory genes as candidates Theor Appl Candidate genes, Stress Cereal insights into the functional in
providecrop yield is greatly affectedbasis
E., Barabaschi, D., for cold and drought stress tolerance in Genet 112, tolerance, CBF1, ICE1, many growing areas by abiotic stresses,
Aprile, A., Skinner, J.S., barley. 445-454. FRY1 mainly low temperature and drought. In
825 Stockinger, E.J., Stanca, 2006
Towill, L.E., Bonnart, Cryopreservation of Arabidopsis thaliana Cryo Letters Vitrification, Two-Step order to find candidates for the tolerance
Development of a successful shoot tip
R., and Volk, G.M. shoot tips. 27, 353-360. cooling, Cryoprotectant, cryopreservation method for Arabidopsis
Liquid nitrogen, Cold thaliana L. will enable researchers to use
826 Vollenweider, P., and 2006 Diagnosis of abiotic and biotic stress Environ Pollut acclimation
Foliage, Symptom Visible symptoms study foliage of
molecular tools to in the processes trees
Gunthardt-Goerg, M.S. factors using the visible symptoms in 140, 562-571. gradiens, Abiotic stress are recorded to monitor the effects of
foliage. abiotic and biotic stress. Difficulties are
827 Wenzel, G. 2006 Molecular plant breeding: achievements Appl Transgenic crop, reported in diagnosing transgenic of stress.
Since one decade ago, the origin crop
in green biotechnology and future Microbiol Herbicide tolerance, plants are globally grown; in 2004, it was
perspectives. Biotechnol 70, Insecticide tolerance, estimated to cover a total of 81 Mio ha in
828 Wong, C.E., Li, Y., 2006 Transcriptional profiling implicates Plant Physiol Green Biotechnology
642-650. Thellungiella, 17 countries. At present, four plant species
Thellungiella, an Arabidopsis
Labbe, A., Guevara, D., novel interactions between abiotic stress 140, 1437- Arabidopsis thaliana, (Arabidopsis thaliana)-related halophyte,
Nuin, P., Whitty, B., and hormonal responses in Thellungiella, 1450. Halophyte, Model is an emerging model species for studies
829 Diaz, C., Golding, G.B.,
Xiong, Y., and Fei, S.Z. 2006 a close relative phylogenetic analysis of Planta 224,
Functional and of Arabidopsis. species
DREB/CBF, Cold designed to elucidate molecular
The dehydration-responsive element
a DREB/CBF-like gene in perennial 878-888. acclimaiton, Freezing binding proteins (DREB1)/C-repeat (CRT)
ryegrass (Lolium perenne L.). tolerance, Lolium perene binding factors (CBF) function as
830 Zhang, Y., Wang, Z., 2006 Molecular cloning and stress-dependent J Plant Physiol L., Transgenic
Chinese cabbage transcription factors are important for
Potassium channels and bind to the
Zhang, L., Cao, Y., regulation of potassium channel gene in 163, 968-978. (Brassica rapa ssp. many physiological functions in plants,
Huang, D., and Tang, K. Chinese cabbage (Brassica rapa ssp. Pekinensis); Expression one of which is to regulate plant adaption
Pekinensis). patterns; KCT2; to stress conditions. In this study, KCT2,
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
831 Zhao, T.J., Sun, S., Liu, 2006 Regulating the drought-responsive J Biol Chem CBF, Transcription DREB1/C-repeat binding factor (CBF) is a
Y., Liu, J.M., Liu, Q., element (DRE)-mediated signaling 281, 10752- factor, Freezing plant-specific family of transcription
Yan, Y.B., and Zhou, pathway by synergic functions of trans- 10759. tolerance, Cis-acting factors and plays a crucial role in freeze
832 H.M.
Agarwal, P., Agarwal, 2007 active and trans-inactive DRE binding
Stress-inducible DREB2A transcription Mol Genet element
DRE, DREB2A, Abiotic stress-mediated work, two groups
tolerance. In the present gene expression is
P.K., Nair, S., Sopory, factor from Pennisetum glaucum is a Genomics 277, Pennisetum glaucum, regulated via different transcription
S.K. Reddy, M.K. phosphoprotein and its phosphorylation 189-198. Phosphorylation, factors of which drought-responsive
833 Blodner, C., Goebel, C., 2007 negatively regulates its DNA-binding
Warm and cold parental reproductive Plant Cell Transcription factors element-binding (DREB) proteins play an
Conditions in the parental environment
Chilling, Ecophysiology,
Feussner, I., Gatz, C., environments affect seed properties, Environ 30, Epigenetic effect, during reproduction can affect the
and Polle, A. fitness, and cold responsiveness in 165-175. Freezing, Transcriptionperformance of the progenies. The goals
834 Burdulis, D., Analysis of thaliana progenies.
2007 Arabidopsisanthocyanin content in Medicina factor
Anthocyanins, of this study were to investigate whether
Bilberry (Vaccinium myrtillus L.) is rich
Ivanauskas, L., Jakstas, bilberry (Vaccinium myrtillus L.) fruit (Kaunas) 43, Chromatography, fruits,in flavonoids (major part anthocyanins),
V., and Janulis, V. crude drugs by high-performance liquid 568-574. Bilberry, Pharmacopoeiatannins, phenolic and organic acids, and
835 Chawade, A., 2007 chromatography method. pathways in
Putative cold acclimation BMC other biologically active the advent of
BACKGROUND: With compounds.
Microarray, Arabidopsis,
Brautigam, M., Lindlof, Arabidopsis thaliana identified by a Genomics 8, Cold-related genes microarray technology, it has become
A., Olsson, O., and combined analysis of mRNA co- 304. feasible to identify virtually all genes in an
Cheng, B.
836 Olsson, C., Yun, K.Y., An early response regulatory motifs
2007 expression patterns, promotercluster and BMC Japonic rice, organism that are inducedrespond to low
BACKGROUND: Plants by a certain
Ressom, H.W., induced by low temperature and Genomics 8, transcriptional network, temperature through an intricately
Mohanty, B., Bajic, hydrogen peroxide in seedlings of 175. CBF/DREB, cold coordinated transcriptional network. The
837 V.B., Jia, Y., Yun, S.J.,
Choi, C.S., and Sano, H. 2007 chilling-tolerant japonica rice.
Abiotic-stress induces demethylation and Mol Genet resistanceGene
Tobacco, CBF/DREB-regulated network of genes
To examine the relationship between gene
transcriptional activation of a gene Genomics 277, expression, DNA expression and DNA methylation,
encoding a glycerophosphodiesterase- 589-600. methylation transcriptionally activated genes were
838 Cuming, A.C., Cho, 2007 like protein in tobacco plants.
Microarray analysis of transcriptional New Phytol. Physcomitrella patens, screened in hypomethylated transgenic
* Dehydration tolerance was an adaptive
S.H., Kamisugi, Y., responses to abscisic acid and osmotic, microarray, dehydration trait necessary for the colonization of land
Graham, H., and salt, and drought stress in the moss, tolerance by plants, and remains widespread among
Denslow, R.S.
839 Quatrano, S.A., 2007 Physcomitrella patens.
Regulation of the Arabidopsis thaliana Plant Physiol Antioxidant; Plant Vitamin B(6) (pyridoxine and relatives of
bryophytes: the nearest extant its vitamers)
Rueschhoff, E.E., and vitamin B6 biosynthesis genes by abiotic Biochem 45, abiotic stress; SNZ1; plays an essential role as a co-factor for
Daub, M.E. stress. 152-161. SNO; YaaD; YaaE enzymatic reactions and has also recently
840 Einsele, A. 2007 The gap between science and perception: Adv Biochem Biotech crops, GM food, been implicated in defense against cellular
Although the global area of biotech crops
the case of plant biotechnology in Eng agriculture continues to climb for the tenth
Europe. Biotechnol consecutive year at a sustainable double-
107, 1-11. digit growth rate, the acceptance of
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
841 Gamboa, M.C., 2007 Isolation and characterization of a Plant Physiol Eucalyptus; CBF; Cold- The transcription factors CBF/DREB play
Rasmussen-Poblete, S., cDNA encoding a CBF transcription Biochem 45, 1- tolerance; Acclimation; an important role during low temperature,
Valenzuela, P.D., and factor from E. globulus. 5. Abiotic stress; Forest drought and high-salt stress in higher
842 Krauskopf, E.
Griffith, M., Timonin, 2007 Thellungiella: an Arabidopsis-related Plant Cell biotechnology
Adaptation, Anti-freeze plants. In this salsuginea, a wild crucifer
Thellungiella work, we isolated one full-
M., Wong, A.C., Gray, model plant adapted to cold Environ 30, proteins, CBF1, Cold- that grows in subarctic Canada and is
G.R., Akhter, S.R., temperatures. 529-538. regulated genes, closely related to Arabidopsis thaliana,
843 Saldanha, M., Rogers,
Groppa, M.D., and 2007 Polyamines and abiotic stress: recent Amino Acids. COR15a, COR47,
Abiotic stres, was examined we willsuitability as inmodel
In this review for its concentrate a the
Benavides, M.P. advances polyamines, putrescinem results published the last years regarding
spermidine, spermine the involvement of polyamines in the plant
844 Hashimoto, M., and 2007 Proteomic analysis of rice seedlings Proteomics 7, Rice, Cold response, responses to abiotic one of the important
Low temperature is stresses, most
Komatsu, S. during cold stress. 1293-1302. Proteomics environmental changes that affect plant
growth and agricultural production. To
845 Hodkinson, T.R., 2007 DNA banking for plant breeding, J Plant Res Databases, DNA bank, investigate the responses of rice to cold
The manipulation of DNA is routine
Waldren, S., Parnell, biotechnology and biodiversity 120, 17-29. DNA extraction, practice in botanical research and has
J.A., Kelleher, C.T., evaluation. Exchange, Management, made a huge impact on plant breeding,
846 Salamin, K., and
Young Jang, J., Jin 2007 Molecular cloning of a cDNA encoding a J Plant Abiotic transfer
Materialstress; biotechnology and biodiversity evaluation.
A cDNA encoding a high mobility group
Kwak, K., and Kang, H. high mobility group protein in Cucumis Physiol 164, Cucumber; Cucumis B (HMGB) protein was isolated from
sativus and its expression by abiotic 205-208. sativus; High mobility Cucumis sativus and characterized with
847 James, V.A., Neibaur, 2007 stress treatments.
Stress inducible expression of the Transgenic group protein; HMG-box respect to its sequence, expression and
DREB1A, Transcription The dehydration-responsive element
I., and Altpeter, F. DREB1A transcription factor from xeric, Res. factor, Hordeum binding proteins (DREB1)/C-repeat (CRT)
Hordeum spontaneum L. in turf and spontaneum, Bahiagrass, binding factors (CBF) function as
848 Kagale, S., Divi, U.K., 2007 forage grass (Paspalum notatum Flugge) Planta 225,
Brassinosteroid confers tolerance in Turfgrass, Forage,
Brassinosteroids, transcription activators and bind to the
In addition to an essential role in plant
Krochko, J.E., Keller, Arabidopsis thaliana and Brassica napus 353-364. envinronmental stress, development, brassinosteroids (BRs)
W.A., and Krishna, P. to a range of abiotic stresses. Brassica napus, tomato appear to have the ability to protect plants
849 Kant, P., Kant, S., 2007 STRS1 and STRS2, Two DEAD-Box Plant Physiol. Functional genomics, against various environmental stresses.
Two genes encoding Arabidopsis DEAD-
Gordon, M., Shaked, R., RNA Helicases that Attenuate RNA helicases, Abiotic box RNA helicases were identified in a
and Barak, S. Arabidopsis Responses to Multiple stress functional genomics screen as being down-
850 Kaplan, F., Kopka, J., 2007 Abiotic Stresses.
Transcript and metabolite profiling Plant J 50, 967- Post-transcriptional Exposure of multiple abiotic stresses.
regulated by Arabidopsis to low
Sung, D.Y., Zhao, W., during cold acclimation of Arabidopsis 981. regulation, Low temperatures results in cold acclimation
Popp, M., Porat, R., and reveals an intricate relationship of cold- temperature, where freezing tolerance is enhanced. To
Guy, C.L. regulated gene expression with Metabolism, Sugars, achieve a wider view of the role of
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
851 Kim, J.Y., Park, S.J., 2007 Functional characterization of a glycine- Plant J 50, 439- Abiotic stress, Although glycine-rich RNA-binding
Jang, B., Jung, C.H., rich RNA-binding protein 2 in 451. Arabidpsis thaliana, protein 2 (GRP2) has been implicated in
Ahn, S.J., Goh, C.H., Arabidopsis thaliana under abiotic stress Glycine-rich RNA- plant responses to environmental stresses,
852 Cho, K., Han, O., and
Kim, J.S., Park, S.J., 2007 conditions. domain proteins and glycine-
Cold shock Nucleic Acids binding prozein, RNA
Glycine-rich RNA- the functionfact that cold shockGRP2 in
Despite the and importance of domain
Kwak, K.J., Kim, Y.O., rich RNA-binding proteins from Res 35, 506- binding proteins, cold proteins (CSDPs) and glycine-rich RNA-
Kim, J.Y., Song, J., Arabidopsis thaliana can promote the 516. acclimation binding proteins (GRPs) have been
Kim, B., Jung, C.H.,
853 Jang, M.J., Lim, G.H., 2007 cold adaptation process in Escherichia
Abiotic and biotic stress tolerance in Biochem Glucose insensitive, We conducted a genetic during the cold
implicated to play a role yeast screen to
Kim, E.S., Ko, C.B., Arabidopsis overexpressing the Biophys Res MBF1a, Pathogen identify salt tolerance (SAT) genes in a
Yang, K.Y., Jeong, J.A., multiprotein bridging factor 1a (MBF1a) Commun 354, defense, Salt stress maize kernel cDNA library. During the
Kim, S.H., and Kim,
854 Lee, M.C., Kim, J.Y., 2007 transcriptional coactivator gene. genes
Isolation of cold stress-responsive 440-446.
Plant Cell mRNA differential screening, we identified a stage, rice crops
During their reproductive maize clone
Kim, S.J., An, K.S., An, in the reproductive organs, and Rep 26, 1097- display, cold response often are exposed to cold stress, which
G., and Kim, S.R. characterization of the OsLti6b gene 1110. genes, Rice leads to sterility and reduced yields. To
855 Lee, H.E., Shin, D., Ethylene (Oryza sativa L.).
2007 from rice responsive element binding Biochem Ethylene responsive understand the cold response mechanism
To identify components of the plant stress
Park, S.R., Han, S.E., protein 1 (StEREBP1) from Solanum Biophys Res element binding protein; signal transduction cascade and response
Jeong, M.J., Kwon, tuberosum increases tolerance to abiotic Commun 353, Cold stress; GCC-box; mechanisms, we screened plant genes
856 T.R., Lee, S.K., Park,
Livingston, D.P., 3rd, 2007 stress in transgenic potato plants.model
Using Arabidopsis thaliana as a Cryobiology Solanum tuberosum L.;
863-868. Arabidopsis; Cold- using reverse Northern blot analysis,as a
The suitability of using Arabidopsis and
Van, K., Premakumar, to study subzero acclimation in small 54, 154-163. acclimation; Freezing model plant to investigate freezing
R., Tallury, S.P., and grains. tolerance; Winter tolerance was evaluated by observing
857 Herman, E.M.
Mano, H., Ogasawara, 2007 Isolation of a regulatory gene of Flavonoid Gene
Plant Physiol hardiness; biosynthesis, similarities to winter cereals in tissue the
Many transcriptional factors harboring
F., Sato, K., Higo, H., anthocyanin biosynthesis in tuberous 143, 1252- Regulatory elements, R2R3-MYB domain, basic helix-loop-
and Minobe, Y. roots of purple-fleshed sweet potato. 1268. Ipomoea batatas L. helix domain, or WD40 repeats have been
858 Muthukumar, B., 2007 Transcriptional activation and BMC Plant Brassica juncea, Metal identified in various plant species as
BACKGROUND: Metal
Yakubov, B., and Salt, localization of expression of Brassica Biol 7, 32. hyperaccumulation, hyperaccumulators, including various
D.E. juncea putative metal transport protein Metal transportedr, Thlaspi species, constitutively express the
859 Nakayama, K., Okawa, 2007 BjMTP1. Cor15am is a chloroplast
Arabidopsis Plant Physiol BjMTP1
Arabidopsis, Freezing putative metal transporter MTP1 to high
Many plants acquire increased freezing
K., Kakizaki, T., stromal protein that has cryoprotective 144, 513-523. tolerance, Cor15am, tolerance when they are exposed to
Honma, T., Itoh, H., and activity and forms oligomers. Chloroplast, Stromal nonfreezing temperatures of a certain
Peng, T.
860 Inaba, Y., Lin, W., Cai, 2007 Overexpression of a Panax ginseng Planta 226, protein
Aquaporins, Cold Water movement across known
duration. This process is cellular as cold
W., and Arora, R. tonoplast aquaporin alters salt tolerance, 729-740. acclimation ability, membranes is regulated largely by a
drought tolerance and cold acclimation Drought tolerance, Panax family of water channel proteins called
ability in transgenic Arabidopsis plants. ginseng, tonoplast aquaporins (AQPs). Since several abiotic
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
861 Phillips, J.R., Dalmay, 2007 The role of small RNAs in abiotic stress. FEBS Lett MicroRNAs, It was recently discovered that plants
T., and Bartels, D. 581, 3592- Dehydration stress, respond to environmental stress not only
3597. Oxidative stress, with a specific gene expression
862 Shao, H.B., Guo, Q.J., 2007 Understanding molecular mechanism of Colloids Surf Nutrient stress
Plant gene regulatory Higher plants the the most important role
programme at playmRNA and protein level
Chu, L.Y., Zhao, X.N., higher plant plasticity under abiotic B network system; Abiotic in keeping a stable environment on the
Su, Z.L., Hu, Y.C., and stress. Biointerfaces stress; Signal; earth, which regulate global circumstances
863 Cheng, J.F. Cram, D.,
Sharma, N., 2007 Exploiting the wild crucifer Thlaspi 54, 37-45. Biol Biointerfaces;
Plant Mol Cold stress, Cross in many arvense, terms of different levels
Thlaspi ways in a wild species from the
Huebert, T., Zhou, N., arvense to identify conserved and novel 63, 171-184. species microarray, S- Brassicaceae family, was shown to have a
and Parkin, I.A. genes expressed during a plant's response adenosyl-methionine, higher level of freezing tolerance than
864 Sreenivasulu, N., Abiotic arvense
2007 to cold stress.the regulatory mechanisms Gene 388, 1- Thlaspi stress tolerance;
Deciphering Environmental constraints the include
either of its close relatives,that model
Sopory, S.K., and Kavi of abiotic stress tolerance in plants by 13. Osmoregulation; abiotic stress factors such as salt, drought,
Kishor, P.B. genomic approaches. Regulators; Genomic cold and extreme temperatures severely
865 Sunkar, R., 2007 Small RNAs as big players in plant Trends Plant approaches; Transgenics
Crop, Abiotic stress, Abiotic stress is one of Improvement of
limit crop productivity. the primary causes
Chinnusamy, V., Zhu, abiotic stress responses and nutrient Sci 12, 301- MicroRNAs, Small of crop losses worldwide. Much progress
J., and Zhu, J.K. deprivation. 309. interfering RNA has been made in unraveling the complex
866 Swindell, W.R., 2007 Plastic and adaptive gene expression Heredity 99, Adaptation, Gene stress response mechanisms, particularly
Transcriptional profiling using DNA
Huebner, M., and patterns associated with temperature 143-150. expression, Microarray, microarrays has become a widely used
Weber, A.P. stress in Arabidopsis thaliana. Plasticity, Reaction norm approach for identifying genes with
867 Tardif, G., Kane, N.A., 2007 Interaction network of proteins Plant Mol Biol Abiotic stress, Stress importantthe most stress-regulatory
Wheat is roles in widely adapted crop to
Adam, H., Labrie, L., associated with abiotic stress response 63, 703-718. tolerance, Wheat, Protein abiotic stresses and considered an
Major, G., Gulick, P., and development in wheat. interaction excellent system to study stress tolerance
868 Sarhan, and and
Vij, S., F., Tyagi, A.K. 2007 Emerging trends in the functional Plant Abiotic stress, Stress Plants are its genetic different abiotic
in spite of exposed to complexity. Recent
genomics of the abiotic stress response Biotechnol J tolerance, Crop, Stress stresses, such as water deficit, high
in crop plants. 5, 361-380. response temperature, salinity, cold, heavy metals
869 Xin, Z., Mandaokar, A., 2007 Arabidopsis ESK1 encodes a novel Plant J 49, 786- Freezing tolerance, Cold and mechanical wounding, under field
The eskimo1 (esk1) mutation of
Chen, J., Last, R.L., and regulator of freezing tolerance. 799. acclimation, esk1 Arabidopsis resulted in a 5.5 degrees C
Browse, J. mutant, Microarray improvement in freezing tolerance in the
870 Zhang, J.Y., Broeckling, 2007 Heterologous expression of two Plant Mol Drought tolerance, absence of cold acclimation. Here we
Cuticular waxes are the major components
C.D., Sumner, L.W., Medicago truncatula putative ERF Biol 64, 265- Frezing tolerance, of plant cuticle and play an important role
and Wang, Z.Y. transcription factor genes, WXP1 and 278. Medicago truncatula, in protecting aerial organs from damage
WXP2, in Arabidopsis led to increased Transcription factor, caused by biotic and abiotic stresses. Here
Nr. Autorius Metai Pavadinimas Leidinys Raktažodžiai Abstraktas
871 Zhao, J., Ren, W., Zhi, 2007 Arabidopsis DREB1A/CBF3 bestowed Plant Cell Rep Agrobacterium In order to improve drought tolerance of
D., Wang, L., and Xia, transgenic tall fescue increased tolerance 26, 1521- tumefaciens, DREB1A tall fescue (Festuca arundinacea Schreb.),
G. to drought stress. 1528. gene, Festuca an important perennial cool-season grass,
arundinacea, Drought we introduced Arabidopsis