Funding Opportunities
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Engineering Education Programs at
NSF
ASEE, Albuquerque
March 27, 2008
Gerhard Salinger
Division of Research on Learning
Resources, Models and Tools Cluster
Advanced Technological Education
Presentation Outline
Overview of NSF, EHR and DRL
DRL: DR-K12, ISE, ITEST, ATE
DUE: CCLI, S-STEM, STEP
Other: NUE,
GCEE
Office of Cyberinfrastructure
NSF Organizational Chart Office of Equal Employment
Opportunity Programs
Director Office of the General Counsel
OIG NSB Deputy Director Office of Integrative Activities
Office of International
Science & Engineering
Office of Legislative &
Public Affairs
Office of Polar Programs
BIO CISE ENG GEO MPS
BFA IRM
SBE EHR
NSF Vision
Advancing discovery, innovation
and education beyond the frontiers
of current knowledge, and
empowering future generations in
science and engineering.
Create a world-class, broadly
inclusive science and engineering
workforce and expand the
scientific literacy of all citizens.
change in intellectual merit
criterion: "To what extent does
the proposed activity suggest and
explore creative, original, or
potentially transformative
concepts?‖
Effective after January 5, 2008
•Revolutionizing entire disciplines
•Creating entirely new fields
•Disrupting accepted theories and
Important Notice perspectives . . .
No. 130,
•endeavors which have the potential to
September 24,
2007
change the way we address challenges in
science, engineering, and innovation
Thematic Framework for NSF’s
Directorate for Education and Human Resources
Broadening Participation to Improve
Workforce Development
Enriching the Education of STEM Teachers
Promoting Learning Through Research
and Evaluation
Furthering Public Understanding of
Science and Advancing STEM Literacy
Transforming STEM Education through
Cyber-enabled Learning Strategies
Division of Research on Learning
The Division’s programs offer a set of
complementary approaches for advancing
research, development, and field-based
improvement strategies.
Discovery Research K-12 (DR-K12)
Innovative Technology Experiences for
Students and Teachers (ITEST)
Informal Science Education (ISE)
Research and Evaluation on Education in
Science and Engineering (REESE)
Mission of the Division of
Research on Learning
To promote innovative research,
development, and evaluation of
learning and teaching across all STEM
disciplines by advancing cutting-edge
knowledge and practices in both
formal and informal learning
settings.
evaluate and
generalize
(REESE, DRK)
implement, study
and improve synthesize and
(DRK, ISE, ITEST) theorize
(REESE, DRK)
hypothesize
design, develop and clarify
and test (DRK, (REESE)
ISE, ITEST)
Discovery Research K-12
(DR-K12) NSF 08-502
Full Proposal deadline: Winter, 2009
Website:
http://www.nsf.gov/publications/p
ub_summ.jsp?ods_key=nsf08502
For further information:
703-292-8620
DRLDRK12@nsf.gov
Goal
Enable significant advances in K-12
student and teacher learning of the
STEM disciplines, through research
and development of innovative
resources, models, and
technologies for use by students,
teachers, administrators and policy
makers.
DR-K12 Projects
Projects funded under this
solicitation:
begin with a research question or
hypothesis about K-12 STEM
learning or teaching
develop, adapt, or study innovative
resources, models, or technologies
demonstrate if, how, for whom,
and why their implementation
affects learning
DR-K12’s Five Challenges
(projects MUST address one of the challenges)
CONTEXTUAL
Assessment to improve instruction and learning
Learning significant content and processes to ensure
public literacy and workplace readiness
FRONTIER RESEARCH
Providing all student the opportunity to learn significant
STEM content and processes
Support for STEM teacher practice and development
with Cyber-enabled learning
Enhancing K-12 STEM classroom learning with local and
global resources and systems
Frontier Challenge Projects
Anticipate opportunities for teaching and learning in
10 years;
Question existing assumptions about learning and
teaching;
Envision schools more responsive to diverse
learners;
Implement innovative methods of learning that
include collaborative and interactive tools for cyber-
enabled learning;
Have the potential to transform current practice;
Expand classroom boundaries that define formal
education today.
Award Types
Full Research and Development Projects—
research, development and implementation with
attention to design and evaluation
Exploratory Projects— preliminary work to
clarify constructs, assemble theoretical or
conceptual foundations, or perform analytic or
empirical preparatory work
Synthesis Projects— synthesis of existing
knowledge on a topic of critical importance
Conferences
INFORMAL SCIENCE EDUCATION
(ISE) 08-547
Letter of Intent deadline: September 18, 2008
Full Proposal deadline: December 18, 2008
Website:
http://www.nsf.gov/pubs/2008/nsf
08547/nsf08547.htm
For further information:
703/292-8616,
email: DRLISE@nsf.gov
―INFORMAL‖
Voluntary, self-directed
Motivated by personal needs, interests
Shaped by prior knowledge,
experience
Mediated by social/cultural context
Cumulative, lifelong process
Audiences
Public: all ages & backgrounds
Families
Children/youth (outside school
activities)
Linkages to students & teachers
Adults/parents
Professional: advance ISE
knowledge, infrastructure, & practice
ISE PROGRAMS
Exhibits
TV, Radio, Large Format Video
Youth and Community
Technology and Cyber-learning
ISE Emphases
Strategic Impact - ―Raise the bar‖
Impact on ISE field--beyond those reached
directly by project deliverables
Innovation - ―Push the envelope‖
Build on prior work + educational research
Support projects at frontiers—to advance
state-of-the-art in informal STEM learning
Collaboration - to achieve outcomes not
otherwise possible; partner with informal
learning institutions, media organizations,
community groups, universities, research
centers, associations…
PROJECT DESIGN
―Backward Design‖ – impact, audience,
deliverables, design
Evaluation – front end, formative,
summative
Target Audience Metrics – awareness,
engagement, interest, attitude, behavior,
new skills
Linkages to STEM Research
Linkages to K-12 Programs – standards,
classroom integration
Innovative Technology Experiences
for Students and Teachers
(ITEST) (NSF 08-526)
http://www.nsf.gov/pubs/2008/nsf08526/
nsf08526.htm
Letters of Intent: Winter, 2009
Full Proposal deadline: Spring, 2009
For further information:
(703) 292-8628, email:
DRLITEST@nsf.gov
ITEST Background
Funded by H-1B visa revenues
Focus on any STEM area
Targets K-12 students, teachers, and parents
in relationship to needs of the US workforce
STEM workforce includes technologists,
scientists, engineers, and mathematicians;
also ICT-intensive fields (e.g., computational
biology, biotechnology, and nanotechnology)
ITEST Program Goals
Develop, implement, study, and evaluate
strategies that:
Encourage K-12 students to prepare for and
consider careers in IT and STEM
Equip teachers to prepare and encourage
students to enter the STEM workforce
Build a general knowledge base on
approaches that increase US capacity in the
STEM workforce (including information and
communication technology or ICT)
3 Project Types
Strategies – design, implement and test
theory and practice-based models
Scale-Up-implement and study successful
local models at a large scale state or national
level
Studies – build the general knowledge base
STRATEGIES OVERVIEW
Design, implementation, and testing of
practice and theory-based models to interest
and prepare students to participate in the
STEM and ICT-intensive workforce
Identify and build knowledge, skills, and
dispositions essential for the workforce
Directly impact K-12 students or teachers
Include diverse institutional partners
ALL ITEST Proposals must…
Demonstrate evidence of public/private
partnerships and collaborations
Include a project-level evaluation and agree
to participate in a third-party evaluative
research plan implemented by an external
evaluator
Agree to work with the ITEST Resource
Center which provides technical assistance
and contributes to the existing repository of
data on ITEST projects
Advanced Technological Education
(ATE)
Partners with Industry for a New American
Technician Workforce
Program Solicitation: 07-530 FY2008-
FY2010
Preliminary Proposals: April 26, 24, and
23 respectively
Formal Proposals: October 11, 16, and
15 respectively
WHAT IS ATE?
Education of technicians for high technology
fields
Two year colleges in leadership positions
Partnerships among two year colleges
Collaboration with four year institutions,
secondary schools, business and industry,
government and professional societies.
Why Community Colleges?
44% of the students who receive
baccalaureate or masters’ degrees in a STEM
field attended a community colleges.
Associate degree programs produce highly
qualified science and engineering technicians
for the high performance workplace and
improve U. S. competitiveness.
Community colleges play a large role in the
preparation of future K-12 teachers.
Community colleges have very diverse student
bodies
Community colleges are responsive to industry
needs
Local, inexpensive, flexible
Advanced Technological Education
Projects which focus on:
Program Improvement;
Professional Development for Educators;
Curriculum and Educational Materials
Development;
Teacher Preparation; or
Small Grants for Institutions New to the ATE
Program.
Centers of Excellence – National, Regional, Resource
http://www.ATECenters.org
Targeted Research on Technician Education
New ATE Project Opportunity:
Small Grants for Institutions New to ATE
Stimulate implementation, adaptation, and
innovation in all areas supported by ATE.
Broaden the base of participation of
community colleges in ATE and strengthen
their role in meeting needs of business and
industry
Proposers are encouraged to include resources
of ATE and other NSF awardees and to include
those people as consultants and subawardees.
Available only to community college campuses
that have not an an ATE award within the last
10 years
Limited to $150,000 with a maximum of 10%
indirect
TARGETED RESEARCH IN
TECHNICIAN EDUCATION
Supports research on technician education,
employment trends, changing role of
technicians in the workplace, etc. that make
technician programs more effective
Represents a TRUE collaboration reflected
in activities, leadership, and budget
between well-qualified researchers and
two-year college educators
Determine educational strategies most
effective in improving student learning in
specific fields
Determine the effectiveness of strategies
such as problem based learning and remote
laboratories.
ATE Projects
Projects increase the relevance of technician
education to modern practices and assure an
increased quality of students entering the
high performance workplace with enhanced
competencies. They are more focused than
centers.
Program Improvement
Activities include:
Integrating industry standards and workplace
competencies into the curriculum
Adapting educational materials or courses
developed elsewhere
Adding rigorous STEM content to programs and
courses
Providing professional development to educators
Developing articulation agreements between
two-year colleges and secondary schools or four-
year institutions
Improving recruitment or retention of students
Some Successful Practices
Focus on needs for the high
performance workplace
Get decision makers involved
Link company research and colleges in
training of technicians
Provide flexible pathways for students
Division of Undergraduate
Education (DUE) Mission
DUE is an agent of change that leads the NSF
efforts to achieve excellent STEM undergraduate
education for all students.
It creates, develops, and manages programs that
enable institutions to expand the professional
Science and Engineering workforce and to
strengthen the scientific literacy for citizens
through undergraduate curricula and related
activities.
Budget is approximately $270,000,000 in FY2007 s.tudent works with
plastic to make a mold for a machine part in the CNC (Computer Numeric Control) lab at Muscatine
DUE PROGRAMS
Advanced Technological Education (ATE)
Course, Curriculum, and Laboratory
Improvement (CCLI)
Scholarships in Science, Technology,
Engineering, and Mathematics (S-STEM)
STEM Talent Expansion Program (STEP)
Course, Curriculum, and
Laboratory Improvement (CCLI)
New
Learning
Materials
Research on Faculty
Teaching and Expertise
Learning
Assessing Implementing
Learning Innovations
CCLI projects should address a recognized need
and undertake exemplary work that addresses at
least one component of this cycle.
CCLI: 3 Phases in an Organized
Cycle to Reach Goals of the Program
Phase 1 – Exploratory Projects
Involve exploratory, initial investigation or
adaptation in one of the component areas.
Phase 2 – Expansion Projects
Build on smaller scale but proven innovations,
refine and test innovations on diverse users
Phase 3 – Comprehensive Projects
Several diverse institutions, evaluation or
assessment activities
CCLI Guidelines and Deadlines
Solicitation: NSF 08-546
Deadlines:
Phase 1: May 20 and 21, 2008
Phase 2 & 3: Jan. 12, 2009
http://www.nsf.gov/pubs/2008/nsf
08546/nsf08546.htm
Questions? Contact program officer in
appropriate discipline.
NSF Scholarships in Science, Technology,
Engineering, and Mathematics (S-STEM)
Goal: Provides institutions funds to provide
scholarships to academically talented, but
financial needy, students. Students can be
pursuing associate, baccalaureate, or graduate
degrees.
Funded from H1B Visa Funds
http://www.nsf.gov/pubs/2007/nsf07524/
nsf07524.htm
Letter of Intent: July 10, 2008
Full Proposals Due: August 12, 2008
S-STEM
Eligible disciplines extended to include biology,
physical and mathematical sciences, computer
and information sciences, geosciences, and
engineering
Maximum scholarships increased to $10,000
(but still based on financial need)
Grant size increased to $600,000 with 7%
allowed for administration and 8% for student
support
One proposal per constituent school or college
that awards degrees (also schools within
institutions
S-STEM
Has a faculty member in a STEM
discipline as the PI.
Involves cohorts of students.
Provides student support structures.
Includes optional enhancements
such as research opportunities,
tutoring, internships, etc.
Enrolls students full time.
STEM Talent Expansion Program
(STEP)
Goal: To increase the number of students (U.S.
citizens or permanent residents) RECEIVING
associate or baccalaureate degrees in established
or emerging fields within science, technology,
engineering, and mathematics (STEM)
Deadline: Late Summer 2008
Optional Letters of Intent: August, 2008
http://www.nsf.gov/pubs/2007/nsf07570/nsf07570.htm
STEP
Bridge programs that enable additional
preparation for students
Programs to encourage undergraduate
research
Programs that provide financial incentives
to students
Programs that focus on the quality of
student learning
high-caliber teaching in smaller
classes
new pedagogical approaches
training of teaching assistants
Nanotechnology Undergraduate
Education (NUE) in Engineering
(08-544)
Nanoscale engineering education with
relevance to devices and systems
and/or on the societal, ethical,
economic and/or environmental issues
relevant to nanotechnology
http://www.nsf.gov/pubs/2008/nsf085
44/nsf08544.htm
Proposal Deadline: May 14, 2008
Innovations in Engineering
Education, Curriculum, and
Infrastructure (IEECI) (08-542)
how students learn the ideas, principles, and
practices to become creative and innovative
engineers, and how this learning is measured
research on how to better attract a more
talented and diverse student body to all levels of
engineering study
investigate models for the evaluation of how
successful teaching, advising, and mentoring
leads to improved retention and graduation
http://www.nsf.gov/pubs/2008/nsf08542/nsf
08542.htm
April 30, 2008
Research Experiences
Research Experiences for Undergraduates
07-569 August 18, 2008
150 New Sites and 1600 Supplements
Research Experiences for Teachers (RET)
in Engineering 07-557 November 17, 2008
Ethics Education in Science and
Engineering (EESE) (08-530)
Improve ethics education in all fields of
science and engineering that NSF
supports, especially in interdisciplinary or
inter-institutional contexts, especially for
graduate students
http://www.nsf.gov/pubs/2008/nsf0853
0/nsf08530.htm
April 03, 2008; March 02, 2009
Integrative Graduate Education and
Research Traineeship Program
(IGERT) (08540)
Catalyze a cultural change in graduate
education, for students, faculty, and
institutions, by establishing innovative new
models for graduate education and training in
an environment for collaborative research that
transcends traditional disciplinary boundaries
http://www.nsf.gov/pubs/2008/nsf08540/nsf0
8540.htm
Preliminary Proposals: April 24, 2008
Formal Proposals: October 20, 2008
Math and Science Partnership (MSP)
(08-525)
Targeted Partnerships seek to improve
student achievement in a specific
grade range and/or with a specific
disciplinary focus in mathematics or
the sciences
http://www.nsf.gov/pubs/2008/nsf0
8525/nsf08525.htm
Letters of Intent: Winter, 2009
Full Proposal deadline: Spring, 2009
GLOBAL COLLOQIUM ON ENGINEERING
EDUCATION
Cape Town, South Africa
October 19-23, 2008
http://www.asee.org/conferences/inter
national/2008/index.cfm
3 Tracks
Poster Papers April 1, 2008
Student Forum for Engineering
Education
Excellence and Growth in
Engineering Education in Resource
Constrained Environments
Inferring and Designing Engineering
Education Practice from Research and
Societal Context
Successful Practices in Engineering
Education
Building Capacity through Sustainable
Accreditation Policy and Practice in
Developed and Emerging Nations
More Information
www.nsf.gov
Click on Publications
On pull down menus
Click on Program Solicitations
And the Directorate you want.
OPPORTUINITIES AT NSF
Review Proposals
Send me a biographical sketch
Become a Program Officer
Apply to the Program of Interest
Thank you!
Questions?
gsalinge@nsf.gov
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