The Education Development Center (EDC) was tasked with identifying and reviewing promising, evidence-based, Pre-K–12 science, technology, engineering, and mathematics (STEM) education programs1 that have scaled and demonstrated evidence of impact, and then listing these programs in a compendium that would inform the Pre-K–12 STEM Education Innovations consensus report. Programs were identified through a self-nomination process and then reviewed and coded by the EDC team.
Since scale and impact can mean different things in different contexts, EDC intentionally kept broad definitions for these two terms. Although the committee provides a more nuanced definition of scale in the report, for the purpose of this compendium, EDC defined scale as reaching at least five to ten times the program’s original population. Impact was defined by EDC as evidence of success from an independent party such as having undergone an evaluation by an external evaluator or a peer review process.
To carry out this compilation work, EDC not only identified innovations by canvasing existing syntheses but also secured nominations from relevant stakeholder groups and interviews with researchers and practitioners. This multipronged approach enabled EDC to distill themes and promising practices as well as identify gaps, challenges, and contexts, which allowed for a focus on how to adapt innovations to meet the needs of different contexts.
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1 For the purpose of this document, EDC uses the term “program” to refer to anything intended to support learning in Pre-K–12 settings (e.g., activities, curricula, tools, professional development).
EDC conducted a seven-step process with the goal of identifying promising Pre-K–12 STEM education programs that have gone through a scaling-up process and demonstrated evidence of impact. In addition to highlighting promising programs, EDC also aimed to identify factors that appear to support programs in their scaling efforts and those that may hinder them, as well as to identify gaps in our understanding of how programs scale.
First, the EDC team conducted a review of the literature to guide their initial understanding of the elements that may support or negatively impact scale-up of Pre-K–12 STEM educational programs and identify gaps in their understanding of scaling. EDC systematically searched Google Scholar and EBSCO using various combinations of the following keywords: STEM, science, mathematics, engineering, education, innovation, scaling, and scale-up. Results were filtered to identify literature published in the last ten years.
Based on the review, EDC began the search for relevant Pre-K–12 STEM programs by setting five general parameters to determine inclusion in the compendium. These parameters stipulated that, in order to be included in the compendium programs must
A Google form was created for potential programs to self-nominate. The form requested general information (e.g., program name and point of contact);
program information (e.g., Pre-K–12 grade band, subject domain[s], intended audience[s]); evidence of scale; and evidence of impact. Evidence of scale and evidence of impact were collected mostly as open-ended responses to allow programs maximum flexibility to explain how they view these parameters and apply them in their individual contexts. A link to this form was included on EDC’s project website and in outreach emails.
EDC developed a working list of sources and field experts to assist in identifying programs to directly contact regarding the self-nomination process. Based on this, EDC identified programs through the following:
In order to identify specific programs to reach out to, EDC first solicited suggestions from their personal contacts as well as through conversations with program officers from the ED, NSF, National Aeronautics and Space Administration, and National Oceanic and Atmospheric Administration. This resulted in 41 programs identified.
EDC then utilized publicly available databases to review federally funded projects from the past 15 years. This included programs funded by Education Innovation and Research scale-up grants from ED, as well as Innovative Technology Experiences for Students (ITEST) and Teachers and Discovery Research Pre-K–12 (DRK–12) grants from the NSF. EDC included a search for the terms “scale” or “scale-up” in order to limit the results to those referencing scale. The list of programs was then reviewed to include only those programs that had scaled, were focused on a field of STEM, and were connected to formal classrooms. EDC also reviewed the What Works Clearinghouse to identify programs that met criteria. This resulted in the identification of an additional 81 programs.
Finally, EDC’s review of the literature identified an additional 14 programs that had not already been identified through other means.
TABLE B-1 Individual Programs Invited to Self-Nominate
| Aligning the Science Teacher Education Pathway. A Networked Improvement Community | Extending the CD Pipeline: Enhancing Rigor and Relevance in Middle School CS | PRISM: Patterns for Reaching and Impacting |
| A culturally responsive project-based learning intervention in secondary science in Alabama and North Carolina | Facilitating Mathematics Success for Students Who Are Emergent Multilingual | Project (FUTURE): Fundamentals Teachers Unit Research Exemplars, Innovations in Embedded Computer Science for Elementary Curricula Innovation and Research Program—Early Phase Application |
| A modern approach to the integration of programming and mathematics | Focus on Inquiry and Equity in Mathematics for Education Faculty | Project Learning Tree |
| Advancing Rural Computer Science (ARCS) | FOSS | Project Research-Based Strategies and Artificial Intelligence for School Enhancement: Turning Around Schools (RAISE) |
| AI Across the Curriculum for Virtual Schools | FUSE Studio | Project WET and WILD |
| All About Balance | Game On: Teaching the AP CSP Through Game Design | Prosocial and Active Learning (PAL) Classrooms 2.0 |
| Amplify Science | Game-Based Learning Platform to Enhance Student Science Outcomes | Reading and Writing for College and Career Success: Expanding the Reach of the Expository Reading and Writing Curriculum |
| Artificial Intelligence | Graspable Math (From Here to There!) | Reading Apprenticeship |
| Assessing Secondary Teachers’ Algebraic Habits of Mind | Growing Beyond Earth | Real World Data Science (RWDS) |
| Beauty and Joy of Computing | Harmony “LEAF to STEM” | Robo Wunderkind STEM Program |
| Blackbird Code | Improving Algebra 1 Outcomes Across Alabama Using Math Nation | Rural ACCESS: AP, College, and Career Excellence in STEM and Computer Science |
| BoSTEM | Improving Grades 6–8 Students’ Mathematics Achieving in Modeling and Problem Solving through Effective Sequencing of Instructional Practices | Scaffolding Middle and High School Students’ Scientific Evaluations of Sources and Alternative Claims in Earth and Environmental Sciences |
| Building A Teacher Knowledge Base for the Implementation of High-Quality Instructional Resources through the Collaborative Investigation of Video Cases | Improving Pedagogy to Accelerate Computational Thinking (IMPACT) | Scalability, Capacity, and Learning Engagement (SCALE) for Fraction Face-Off |
| Building Assets and Reducing Risks (BARR) | Increasing Dual Enrollment Access and Success (IDEAS) | Scaling an Innovative STEM+C Education Support Model for Improved Science Learning |
| Building Toward Computer Science Equity and Inclusion: Developing an Ecosystem of Supports | INFACT: The Inclusion of Neurodiversity in Foundations and Applications of Computational Thinking | Scaling and Sustaining Mission HydroSci: Game-Based Learning for Next Generation Science Learning |
| Catalyzing Innovations in Teacher Leader Development in Rural and Urban Settings | Infiniscope | Scaling ASSISTments for Algebra Readiness (ASSISTments4AR) with Curriculum-based Professional Learning and Coaching |
| Citizen Math: Using Math Class to Create Informed, Thoughtful, and Productive Citizens | Investigating Everyday Phenomena | Scaling Students’ Success with STARI: Expanding Eligibility, Support, and Spread |
| CME Project | Investigating How Combining Intensive Professional Development and Modest Support Affects Rural Elementary Teachers’ Science and Engineering Practice | SMASH 3.0: Innovations in Programming Strategies that Promote Equity In Computer Science Pathways for Historically Excluded Students |
| Coding as Another Language: The Development and Implementation of a Computational Thinking Curriculum and Sustainable Professional Development Model in K–2 | Knowledge acquisition and transformation expansion (KATE) | Smithsonian Science for North and South Carolina Classrooms |
| Comparing the Efficacy of Collaborative Professional Development Formats for Improving Student Outcomes of a Student-Teacher-Scientist Partnership Program | Learning Trajectories as a Complete Early Mathematics Intervention: Achieving Efficacies of Economies at Scale | Spatial Vis: The First Step in Design for Engineering and Technology |
| Computer Science and Engineering and Design STEM Program and K–12 Computer Science Pathway | Lone Star AP CSP | STEM Career Prep Logic Model |
| Computer Science for English Learners (CSforEL): Increasing Participation and Achievement in Advanced Placement Computer Science Principles (AP CSP) for English Learners | Lone Star STEM Project | STEM Language Arts Teaching/Learning Ecosystems (SLATE) |
| Computer Science in Rural California: Training, Implementation, Teaching, and Learning | Making Connections in Mathematics: Empowering Students by Empowering Teachers (MCM) project | Storytime STEM-Packs: STEM + Computer Science |
| Computer Science Opportunities, Development, and Education in Rural Schools (CODERS) | Making Innovative STEM Connections | Strengthening Mathematics Intervention: Addressing Accessibility in Mathematics |
| Creative Coders: Middle School CS Pathways Through Game Design | Making Sense of Science | Studying Successful Doctoral Students in Mathematics from Underrepresented Groups |
| C-STEM | Massachusetts Partnership to Support Student Learning through Math Intervention | Systemic Change to Improve Equity in Computer Science Student Achievement |
| CW-FIT Rural Expansion: Gaining More Time to Learn and More Time to Teach in | Math Data Collaborative Study | Teachers and Researchers Advancing Integrated Lessons in STEM (TRAILS 2.0) |
| Data Adventures | Math for All | Teachley Math |
| Derivita Math | Math Ready supporting Early Number Sense (M-SENS) | Teaming Up for Equity in Science: Supporting NGSS Three-dimensional Learning and Achievement through Actionable Assessment |
| Designing for Equity by Thinking in and about Mathematics (DEbT-M) | Math+C: Mathematics Through Programming in the Elementary Grades | Testing the Impact of Self Regulation Strategy Development (SRSD) |
| Developing a Student-Driven STEM and Computer Science Curriculum for Rural Students | Mathematics, 3D Printing, and Computational Thinking through Work-Based Learning for Middle Schoolers (MPACT) | The Early Math Initiative: Tiered Support to Prepare Native American and Other High-Need Children for Elementary School Mathematics |
| Developing Exemplary Mathematics Teacher Leaders for High Schools (EME2L) | Mathways to STEM Success | Think About It: SySTEMatiCally Preparing Students for the Workforce |
| Developing Organizational Capacity to Improve K–8 Mathematics Teaching and Learning | Metrics: Maximizing Engagement Through Regular Immersion in Computer Science | Transition to Algebra |
| Dragonbox Math Apps | Mississippi Public School Consortium for Educational Access: Advanced Placement (AP) STEM Access Program for Rural, High-Poverty Mississippi School Districts | Transition to Algebra: SolveMe Puzzles |
| Drone Research and Opportunities for Native Elementary Students (DRONES) | Modeling Instruction | Transition to Algebra: Supporting Success in Algebra |
| Elementary Math at EDC | New Virtual Reality Technology to Enhance Students’ Algebra Knowledge and Skills | Turning Tumble |
| Engaging Science Learning with OpenSciEd | NURTURES: Longitudinal Summary of Project Impact on Students’ Mathematics, Reading, & Science Learning | Validated Induction Network Expansion (VINE project) |
| ENpowered—Utilizing Engineering as a Tool to Empower Student Learning | Pathways for Alabama Computer Science | Virtual STEM Role Model Connection |
| eSTEM and Designing Games for Education = eDGE: Giving Students the eDGE in STEM or STEM | PhET Interactive Simulations Project | VisionCoders |
| Evaluating and Replication the San Francisco Unified School District’s Summer Academy for Integrated Learning (SAILL) Program | Playground Physics: Scaling and Sustaining a Technology-Enhanced Middle School Physics Program | Visual Access to Mathematics (VAM) |
| Expanding and Scaling the Pyramid Model in Pre-Kindergarten and Kindergarten Classrooms to Districts Across the U.S. | Positive Physics, Chemistry, Physical Science, Biology, Environmental Science, & Engineering | Watershed Awareness using Technology and Environmental Research for Sustainability (WATERS) |
| Expanding School Readiness Opportunities in the Rural South: The Upstart Rural TASK Force: Taking All to Success in Kindergarten | Power of Data | WB4CS: The Effectiveness of Work Based Learning in Computer Science Education |
| Expanding SocioEnvironmental Science Investigations with Geospatial Technologies in High Schools | Pre-K Mathematics | Young Academic Music and Computational Thinking |
| Exploring and Connecting to Iowa’s Agriculture | PreK–12 STEM provides a STEM project-based curriculum that is engineering- and computer science-centered. It ensures that every student PreK–12 has a STEM learning trajectory | Young Mathematicians |
| Extending Equity into the Digital Workforce | Preparing High-Need Students for Success in Early Science Instruction | YouthAstroNet |
In total, EDC sent invitations to 136 programs inviting them to self-nominate. These programs are shown in Table B-1 (programs as listed in tabular form to save space).
In addition to reaching out to specific programs, EDC also sent information about this opportunity to organizations and asked them to share it with
TABLE B-2 Organizations Contacted
| AERA | Lawrence Hall of Science | Plus Alpha Research and Consulting |
| AISES | LGBTQ+ STEM | Project Lead the Way |
| Arizona STEM Acceleration Project | MAES | SACNAS |
| ASEE | Math for America | SHPE |
| ASPIRA | Micron Foundation | SREB |
| Batelle | MIND Research Institute | SRI |
| California State Northridge | NABG | STEM Education Coalition |
| Code.org | NABSE | STEM Education Funding Collaborative |
| Collective for Youth Empowerment in STEM and Society | NACME | STEM Next Opportunity Fund |
| Concord Consortium | NARST | STEM NOLA |
| CSforALL | NASA | SWE |
| Digital Promise | NBSP | Teacher Research Consultants |
| Earth Science Women’s Network | NCTM | Teaching & Learning Collaborative |
| EDC | New York Hall of Science | The Education Trust |
| EdScale | New York University | The Calculus Project |
| Florida International University | NIST | TIES |
| Girls Who Code | NOBCCHE | UNCF |
| Girlstart | Northwestern University | University of California, Berkeley |
| Global Childhood Academy | NSBE | WEPAN |
| HACU | NSTA | WestEd |
| IISE | Oak Ridge Associated Universities / Oak Ridge Institute for Science and Education | |
| Illinois Mathematics and Science Academy | Out to Innovate (FKA NOGLSTP) |
programs in their networks that may be eligible for inclusion in the compendium. In total, EDC contacted individuals representing 64 organizations. These organizations are listed in Table B-2.
Program contacts received an outreach email encouraging them to nominate their programs and share the opportunity with their networks. EDC also utilized social media for outreach with posts shared by EDC, CADRE, and STELAR. Moreover, EDC sought word-of-mouth recommendations from knowledgeable colleagues and others in the field whenever possible. An initial deadline for nominations was set for May 1, 2024, and then extended to May 24.
In total, 65 nominations were received (see Table B-3).
Descriptive characteristics of the nominated programs were analyzed using Excel. A rubric was developed to help organize and guide EDC’s review of nominated programs (see Table B-4).2 First, nominations were reviewed to determine to what extent there was evidence of the following factors that may contribute to successful scaling efforts (which was informed by the literature search):
Additionally, nominations were reviewed to determine evidence of scale and impact in four areas:
For each element in the rubric, programs were categorized as providing no evidence, some evidence, or strong evidence.
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2 Although EDC staff are involved with some nominated programs, these individuals were not involved in the review of nominated programs.
TABLE B-3 List of Nominations Received
| Program Name: | Lead Organization: |
|---|---|
| Included in Review | |
| A culturally responsive project-based learning intervention in secondary science in Alabama and North Carolina | Michigan State University |
| AlgebraByExample | SERP Institute |
| Amplify Science | The Lawrence Hall of Science, University of California Berkeley |
| Bay Watershed Education and Training | NOAA |
| Beauty and Joy of Computing | Education Development Center |
| Climate Literacy and Energy Awareness Network (CLEAN) Portal | Cooperative Institute for Research In Environmental Sciences |
| Common Online Data Analysis Platform (CODAP) | The Concord Consortium |
| C-STEM | UC Davis |
| CT-Stem Pop-Ups | Clemson University - College of Education |
| Data in Geosciences | Lawrence Hall of Science |
| EarSketch | Georgia Institute of Technology |
| Exploratorium California K12 Science Leader Network | Exploratorium |
| FUSE | Northwestern University, School of Education and Social Policy |
| Geniventure | The Concord Consortium |
| GEODE Plate Tectonics | The Concord Consortium |
| High-Adventure Science | The Concord Consortium |
| HOUSEHOLD APPLIANCES INNOVATION POWERED BY SOLAR | Teach For Nigeria |
| IRCEDE STEM for Our Youngest Learners | Iowa Regents’ Center for Early Developmental Education |
| Listening to Waves | UCSD |
| LR-MEL Diagrams Project | University of Maryland |
| Making Sense of SCIENCE | WestEd |
| Math for All | Education Development Center |
| NURTURES | The University of Toledo |
| OpenSciEd Middle School Science | OpenSciEd |
| PhET Interactive Simulations | University of Colorado Boulder |
| Program Name: | Lead Organization: |
|---|---|
| PlantingScience | Botanical Society of America |
| Poly Research Initiative | Polytechnic School |
| Pre-K Mathematics | WestEd |
| PreK-12 Integrated STEM Pathway | Community Training and Assistance Center (CTAC) |
| Preschool Data Toolbox | EDC |
| Project LEAP | TERC (w/ UW-Madison, UT-Austin, CUNY) |
| Project Learning Tree | Project Learning Tree |
| SageModeler | The Concord Consortium |
| Science Education for Public Understanding Program (SEPUP) | The Lawrence Hall of Science at the University of California Berkeley |
| Science Teachers Learning from Lesson Analysis (STeLLA) | BSCS Science Learning |
| SCRIPT | CSforALL |
| Seeding Innovation | AISES |
| SmartLab HQ Learning Environment | SmartLab |
| Smithsonian Science for North and South Carolina Classrooms | Smithsonian Science Education Center (SSEC) |
| ST Math | MIND Education |
| STEM Fest, STEM Saturday, STEM Fellows | STEM NOLA/STEM Global Action |
| STEM Innovation and Design (STEM-ID) | Georgia Institute of Technology |
| STEM STRONG (Supporting Teachers in Rural cOmmunities for the Next Generation) | University of North Dakota |
| STEM Workforce Ready 2030 (WFR) | Maine Mathematics and Science Alliance (MMSA) |
| STEM+M (Medicine) Pathway in Middle School | Baylor College of Medicine |
| Storytime STEM-packs | Allegheny Intermediate Unit |
| The GLOBE Program | NASA |
| The World Smarts STEM Challenge | IREX |
| Tiny Techies | NewBoCo |
| Turing Tumble | Upper Story |
| Program Name: | Lead Organization: |
|---|---|
| ULTIMATE: Understanding Learning Trajectories in Math: Advancing Teacher Education | University of Denver |
| Watershed Awareness using Technology and Environmental Research for Sustainability (WATERS) | The Concord Consortium |
| Web-Based Inquiry Science Environment (WISE) | University of California Berkeley |
| Young Academic Music and Computational Thinking (YAM) | Touro University GSE |
| Young Mathematicians | EDC |
| Youth Engineering Solutions/Engineering is Elementary | Museum of Science, Boston |
| Excluded From Review | |
| Afterschool Coaching for Reflective Educators in STEM | Maine Mathematics and Science Alliance |
| BEETLES Project | Lawrence Hall of Science |
| COVID-Inspired Data Science Education through Epidemiology (CIDSEE) | Tumblehome, Inc. |
| Year-Round STEM Education for Girls | Girlstart |
| Collaborating Around Structures, Processes and Instructional Routines (CASPIR) in Mathematics | University of Illinois at Chicago |
| Greenon Local Schools | Greenon Junior/Senior High School |
| Positive Physics & Chemistry | Positive Physics & Chemistry |
| STEM Next Federal Opportunity Fellows | STEM Next Opportunity Fellows |
| Reading Apprenticeship | WestEd |
Notes: Programs highlighted in blue were excluded because they do not have connections to the Pre-K–12 setting, programs highlighted in green were excluded because they do not have external evaluations or peer review, programs highlighted in orange were excluded because they do not connect to STEM disciplines.
| Factors That Affect Scaling | |||
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| No evidence | Some evidence | Strong evidence | |
| A core program with room for adaptation to different contexts: a “tight but loose” framework |
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| Alignment with policies, goals, or standards |
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| Building individual or organizational capacity |
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| Partnerships and networks |
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| Evidence of Scale | |||
| Fidelity |
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| Scaling to new audiences or contexts |
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| Evidence of Impact | |||
| Evidence that participant outcomes were achieved or skills developed |
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| Understanding of effectiveness for different contexts/learners |
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Summaries for all programs are provided in Appendix C. Once all nominations were assessed using the rubric, programs were reviewed to create summaries, including descriptions of scaling efforts and evidence of success.
The process laid out above provided opportunities for EDC to identify and reach out to a wide range of Pre-K–12 education programs that have gone through a scaling-up process and demonstrated evidence of impact. But it is also important to consider some limitations to this approach; these include: