Joseph Steven Krajcik
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(Suggest an Edit or Addition)Joseph Steven Krajcik's Published Works
Number of citations in a given year to any of this author's works
Total number of citations to an author for the works they published in a given year. This highlights publication of the most important work(s) by the author
Published Works
- Motivating Project-Based Learning: Sustaining the Doing, Supporting the Learning (1991) (3104)
- Nature, Sources, and Development of Pedagogical Content Knowledge for Science Teaching (1999) (1638)
- Designing Educative Curriculum Materials to Promote Teacher Learning (2005) (1025)
- Developing a learning progression for scientific modeling: Making scientific modeling accessible and meaningful for learners (2009) (971)
- A Scaffolding Design Framework for Software to Support Science Inquiry (2004) (736)
- Supporting Students' Construction of Scientific Explanations by Fading Scaffolds in Instructional Materials (2006) (710)
- Inquiry in Project-Based Science Classrooms: Initial Attempts by Middle School Students (1998) (697)
- Promoting understanding of chemical representations: Students' use of a visualization tool in the classroom (2001) (607)
- Creating Usable Innovations in Systemic Reform: Scaling Up Technology-Embedded Project-Based Science in Urban Schools (2000) (475)
- A Collaborative Model for Helping Middle Grade Science Teachers Learn Project-Based Instruction (1994) (474)
- Standardized Test Outcomes for Students Engaged in Inquiry-Based Science Curricula in the Context of Urban Reform. (2008) (436)
- FOCUS ARTICLE: Implications of Research on Children's Learning for Standards and Assessment: A Proposed Learning Progression for Matter and the Atomic-Molecular Theory (2006) (426)
- Design‐based science and student learning (2004) (411)
- The Cambridge Handbook of the Learning Sciences: Motivation and Cognitive Engagement in Learning Environments (2005) (397)
- Enacting Project-Based Science (1997) (388)
- Learning‐goals‐driven design model: Developing curriculum materials that align with national standards and incorporate project‐based pedagogy (2008) (383)
- Inquiry-based science in the middle grades: Assessment of learning in urban systemic reform (2004) (374)
- Learning With Peers: From Small Group Cooperation to Collaborative Communities (1996) (370)
- Scientific Explanations: Characterizing and Evaluating the Effects of Teachers' Instructional Practices on Student Learning. (2008) (325)
- Log on education: Handheld devices are ready-at-hand (2001) (322)
- Science on the Web: Students Online in a Sixth-Grade Classroom (2000) (316)
- Project-based learning (2014) (307)
- Creating a Framework for Research on Systemic Technology Innovations (2004) (306)
- Constructing Extended Inquiry Projects: Curriculum Materials for Science Education Reform (2000) (297)
- Performance of Students in Project-Based Science Classrooms on a National Measure of Science Achievement. (2002) (272)
- Teaching Children Science: A Project-Based Approach (1998) (271)
- A Framework for Supporting Metacognitive Aspects of Online Inquiry Through Software-Based Scaffolding (2005) (261)
- Developing a Hypothetical Multi-Dimensional Learning Progression for the Nature of Matter. (2009) (250)
- Design‐based science and real‐world problem‐solving (2005) (247)
- Enacting Reform-Based Science Materials: The Range of Teacher Enactments in Reform Classrooms (2005) (246)
- Supporting Science Teacher Learning: The Role of Educative Curriculum Materials (2002) (242)
- Influence of levels of information as presented by different technologies on students' understanding of acid, base, and ph concepts (1994) (236)
- Contextualizing instruction: Leveraging students' prior knowledge and experiences to foster understanding of middle school science (2008) (230)
- The design of guided learner-adaptable scaffolding in interactive learning environments (1996) (225)
- Planning Instruction to Meet the Intent of the Next Generation Science Standards (2014) (194)
- Synergy Between Teacher Practices and Curricular Scaffolds to Support Students in Using Domain-Specific and Domain-General Knowledge in Writing Arguments to Explain Phenomena (2009) (190)
- Enacting Project-Based Science: Experiences of Four Middle Grade Teachers (1994) (189)
- Supporting Grade 5-8 Students in Constructing Explanations in Science: The Claim, Evidence, and Reasoning Framework for Talk and Writing (2011) (174)
- Making Dynamic Modeling Accessible to Precollege Science Students (1994) (173)
- New technologies for teacher professional development (1998) (172)
- Comparative Study of the Pedagogical Content Knowledge of Experienced and Novice Chemical Demonstrators. (1994) (171)
- The impact of designing and evaluating molecular animations on how well middle school students understand the particulate nature of matter (2009) (170)
- Examining the effect of teachers' adaptations of a middle school science inquiry-oriented curriculum unit on student learning (2011) (166)
- Secondary Students' Dynamic Modeling Processes: Analyzing, Reasoning About, Synthesizing, and Testing Models of Stream Ecosystems (1997) (166)
- Lessons Learned: How Collaboration Helped Middle Grade Science Teachers Learn Project-Based Instruction (1994) (166)
- Re‐conceptualization of scientific literacy in South Korea for the 21st century (2011) (164)
- Influence of Guided Cycles of Planning, Teaching, and Reflection on Prospective Elementary Teachers' Science Content Representations (2000) (155)
- Teaching Science in Elementary and Middle School Classrooms: A Project-Based Approach (2002) (153)
- Achieving standards in urban systemic reform: An example of a sixth grade project‐based science curriculum (2004) (147)
- Inscriptional Practices in Two Inquiry-Based Classrooms: A Case Study of Seventh Graders' Use of Data Tables and Graphs. (2006) (145)
- Building a learning progression for celestial motion: Elementary levels from an earth‐based perspective (2010) (139)
- The Nature of Middle School Learners' Science Content Understandings with the Use of On-line Resources (2003) (138)
- Instructional, Curricular, and Technological Supports for Inquiry in Science Classrooms (1998) (135)
- Socioscientific Issues as a Vehicle for Promoting Character and Values for Global Citizens (2013) (133)
- Transforming energy instruction in middle school to support integrated understanding and future learning (2011) (128)
- Middle school students’ use of appropriate and inappropriate evidence in writing scientific explanations (2012) (124)
- An Investigation of Software Scaffolds Supporting Modeling Practices (2002) (121)
- An analysis of the supports and constraints for scientific discussion in high school project‐based science (2009) (120)
- Portable Technologies: Science Learning in Context (2001) (109)
- Elements of a community of learners in a middle school science classroom (1999) (105)
- Supporting Students in Developing Literacy in Science (2010) (105)
- Concept maps as a heuristic for science curriculum development: Toward improvement in process and product (1990) (103)
- Challenge faculty to transform STEM learning (2015) (102)
- Urban schools' teachers enacting project-based science (2006) (101)
- What Does It Mean To Create Sustainable Science Curriculum Innovations? A Commentary. (2003) (100)
- Promoting Conceptual Understanding of Chemical Representations: Students' Use of a Visualization Tool in the Classroom (2000) (99)
- A Middle Grade Science Teacher's Emerging Understanding of Project-Based Instruction (1994) (98)
- Developing a new teaching approach for the chemical bonding concept aligned with current scientific and pedagogical knowledge (2007) (96)
- The influence of an intensive in-service workshop on pedagogical content knowledge growth among novice chemical demonstrators† (1993) (91)
- Investigating Teacher Learning Supports in High School Biology Curricular Programs to Inform the Design of Educative Curriculum Materials (2009) (91)
- Engaging Students in Scientific Practices: What Does Constructing and Revising Models Look like in the Science Classroom? Understanding a Framework for K-12 Science Education (2012) (90)
- Impact of project-based curriculum materials on student learning in science: Results of a randomized controlled trial (2015) (87)
- The IQWST Experience: Using Coherence as a Design Principle for a Middle School Science Curriculum (2008) (84)
- Curriculum Coherence and Learning Progressions (2012) (83)
- A protocol analysis of the influence of technology on students' actions, verbal commentary, and thought processes during the performance of acid‐base titrations (1993) (83)
- A learner-centered tool for students building models (1996) (80)
- Teaching and Learning of Energy in K-12 Education (2014) (79)
- Investigating Optimal Learning Moments in U.S. and Finnish Science Classes. (2016) (77)
- Elementary student teachers' science content representations (2002) (73)
- Using Innovative Learning Technologies to Promote Learning and Engagement in an Urban Science Classroom (2005) (72)
- Professional Development of Science Teachers (1998) (65)
- Learner-Centered Design: Reflections and New Directions (2001) (63)
- The Big Ideas of Nanoscale Science & Engineering: A Guidebook for Secondary Teachers (2009) (60)
- Expert Models and Modeling Processes Associated with a Computer-Modeling Tool (2006) (57)
- Designing Knowledge‐In‐Use Assessments to Promote Deeper Learning (2019) (56)
- ARTEMIS: learner-centered design of an information seeking environment for K-12 education (1998) (54)
- Inquiry Based Science Supported by Technology: Achievement among Urban Middle School Students. (2000) (53)
- Assessing the role of curriculum coherence in student learning about energy (2015) (52)
- A Research Strategy for the Dynamic Study of Students' Concepts and Problem Solving Strategies Using Science Software. (1988) (52)
- The Role of Educative Curriculum Materials in Reforming Science Education. (1999) (50)
- Research Article Concurrent Enrollment in Lecture and Laboratory Enhances Student Performance and Retention (2012) (49)
- Exploring a Structured Definition for Learner-Centered Design (2000) (48)
- How to Support Learners in Developing Usable and Lasting Knowledge of STEM (2016) (48)
- Using Technology To Support Inquiry In Middle School Science (2006) (46)
- Constructing a Framework for Elementary Science Teaching Using Pedagogical Content Knowledge (1999) (44)
- Opportunities and challenges of China’s inquiry-based education reform in middle and high schools: Perspectives of science teachers and teacher educators (2005) (43)
- High school students' situational engagement associated with scientific practices in designed science learning situations (2020) (42)
- Teaching for Understanding (1997) (42)
- Teaching Science in Elementary and Middle School (2018) (40)
- A Case Study to Distill Structural Scaffolding Guidelines for Scaffolded Software Environments (2002) (40)
- Promoting deep learning through project-based learning: a design problem (2019) (39)
- Issues and approaches for developing lerner-centered technology (2003) (38)
- ScienceWare's Model-It: Technology to Support Authentic Science Inquiry (1997) (38)
- Digital Libraries in the Science Classroom: An Opportunity for Inquiry (1996) (37)
- Exploring middle school students' use of inscriptions in project-based science classrooms (2006) (37)
- Scaffolding in the small: designing educational supports for concept mapping on handheld computers (2002) (34)
- Teacher Practices that Support Students' Construction of Scientific Explanations in Middle School Classrooms (2004) (33)
- Teaching Science in Elementary and Middle School: A Project-Based Approach (2007) (33)
- TOWARDS A MODEL FOR THE DEVELOPMENT OF AN EMPIRICALLY TESTED LEARNING PROGRESSION (2009) (32)
- Promises and Challenges of Using Learning Technologies to Promote Student Learning of Science (2014) (32)
- The Cambridge Handbook of the Learning Sciences: Project-Based Learning (2005) (31)
- Using Technology to Support Students’ Artefact Construction in Science (1998) (31)
- Using Drawing Technology to Assess Students’ Visualizations of Chemical Reaction Processes (2014) (31)
- Development of a learning progression for the particle model of matter (2008) (30)
- Creating an Inquiry-Learning Environment Using the World Wide Web (1996) (30)
- Three-Dimensional Instruction: Using a New Type of Teaching in the Science Classroom (2015) (30)
- Sustaining Innovations Through Lead Teacher Learning: A learning sciences perspective on supporting professional development (2006) (30)
- Chapter VIII: Modern Content and the Enterprise of Science: Science Education in the Twentieth Century (2001) (29)
- Log on education: K-12 and the Internet (2000) (28)
- The Value and Challenges of Using Learning Technologies to Support Students in Learning Science (2002) (28)
- Discipline-centered post-secondary science education research: Understanding university level science learning (2013) (28)
- Learning Progressions Provide Road Maps for the Development and Validity of Assessments and Curriculum Materials (2011) (27)
- Proportional Reasoning and Achievement in High School Chemistry (1987) (27)
- Using Driving Questions to Motivate and Sustain Student Interest in Learning Science 1 (2005) (27)
- Creating Scalable and Systemic Technology Innovations for Urban Education (2001) (26)
- Project-Based Science. (2015) (25)
- The Importance, Cautions and Future of Learning Progression Research (2012) (25)
- Using handhelds to support collaborative learning (2002) (25)
- Teaching educational psychology through instructional planning (1996) (25)
- Large-scale interventions in science education for diverse student groups in varied educational settings (2012) (25)
- Supporting Science Learning in Context: Project-Based Learning (2001) (23)
- Project-Based Science: Engaging Students in Three-Dimensional Learning (2015) (23)
- Telecommunications for teachers: supporting reflection and collaboration among teaching professionals (1995) (23)
- Learning Progression Developed to Support Students in Building a Particle Model of Matter (2013) (23)
- Model-It: A Case Study of Learner-Centered Software Design for Supporting Model Building. (1996) (22)
- A framework for understanding the development of educational software (2002) (22)
- The Casebook of Project Practices--an Example of an Interactive Multimedia System for Professional Development. (1996) (22)
- Systems, transfer, and fields: Evaluating a new approach to energy instruction (2019) (22)
- Standardized Test Outcomes of Urban Students Participating in Standards and Project Based Science Curricula (2004) (21)
- Engaging learners in STEM education (2017) (21)
- Modelling energy transfers between systems to support energy knowledge in use (2018) (20)
- A middle school instructional unit for size and scale contextualized in nanotechnology (2015) (20)
- The Benefits and Limitations of Educative Curriculum Materials (2017) (20)
- Integrating Technology: Students Making Systems Models: An Accessible Approach (2017) (20)
- Learning Science Content in a Project-Based Environment (2001) (20)
- Korean Secondary Students’ Perception of Scientific Literacy as Global Citizens: Using Global Scientific Literacy Questionnaire (2015) (19)
- A Teacher–Researcher Partnership for Professional Learning: Co-Designing Project-Based Learning Units to Increase Student Engagement in Science Classes (2021) (18)
- Tracking student learning over time using construct-centred design (2010) (18)
- Relative success in college chemistry for students who experienced a high-school course in chemistry and those who had not (1988) (18)
- The Next Generation Science Standards: A Focus on Physical Science. (2013) (17)
- Scaffolding Design Guidelines for Learner-Centered Software Environments (2002) (17)
- Teacher Knowledge and Representation of Content in Instruction about Heat Energy and Temperature. (1993) (16)
- “We do not know what is the real story anymore”: Curricular contextualization principles that support indigenous students in understanding natural selection (2018) (16)
- Learning Science: The Value of Crafting Engagement in Science Environments (2020) (16)
- Designing Curriculum To Meet National Standards. (2000) (15)
- Discipline‐centered post‐secondary science education research: Distinctive targets, challenges and opportunities (2014) (15)
- Usable Assessments Aligned with Curriculum Materials: Measuring Explanation as a Scientific Way of Knowing (2003) (15)
- Supporting Students' Construction of Scientific Explanations Using Scaffolded Curriculum Materials and Assessments (2004) (15)
- GLOBALIZATION AND SCIENCE EDUCATION (2013) (15)
- The nature of learners' science content understandings with the use of on-line resources (2003) (15)
- Evaluation of a model science teacher education program (1989) (14)
- Talking Science: Classroom Discussions and Their Role in Inquiry-Based Learning Environments (2009) (14)
- Reframing Inclusive Science Instruction to Support Teachers in Promoting Equitable Three-Dimensional Science Classrooms (2018) (14)
- Introduction: Why Focus on Energy Instruction? (2014) (14)
- Developing and validating Next Generation Science Standards ‐aligned learning progression to track three‐dimensional learning of electrical interactions in high school physical science (2020) (14)
- Genetics in the 21st Century: The Benefits & Challenges of Incorporating a Project-Based Genetics Unit in Biology Classrooms (2010) (14)
- Investigating processes and products of secondary science students using dynamic modeling software (1996) (14)
- What Do Students’ Explanations Look Like When They Use Second-Hand Data? (2015) (14)
- Using Machine Learning to Score Multi-Dimensional Assessments of Chemistry and Physics (2021) (14)
- On the Validity of Machine Learning-based Next Generation Science Assessments: A Validity Inferential Network (2021) (13)
- Motivating Teaching, Sustaining Change in Practice: Design Principles for Teacher Learning in Project-Based Learning Contexts (2021) (13)
- Probing the Relation between Students’ Integrated Knowledge and Knowledge-in-Use about Energy using Network Analysis (2019) (13)
- Using construct-centered design to align curriculum, instruction, and assessment development in emerging science (2008) (12)
- Supporting Students in Using Energy Ideas to Interpret Phenomena: The Role of an Energy Representation (2020) (12)
- The Big Ideas of Nanoscience (2007) (12)
- Log on education: the three Ts of elementary education (2000) (12)
- Promoting computational thinking through project-based learning (2021) (12)
- Learning Science by Designing Artifacts (LSDA)--A Case Study of the Development of a Design-Based Science Curriculum. (2001) (11)
- Developing collaboration in a middle school project-based science classroom (1999) (11)
- The Impact of Using Coherent Curriculum on Students’ Understanding of Core Ideas in Chemistry (2019) (11)
- Technology supports for science learning (2010) (11)
- Evaluation criteria for scaffolding in learner-centered tools (2000) (10)
- Helping Students Write Scientific Explanations (2009) (10)
- Designing and Testing the MoDeLS Learning Progression (2008) (10)
- Issues and methods for evaluating learner-centered scaffolding (2001) (10)
- Implementing what we know about learning in a middle-school curriculum for widespread dissemination: the project-based inquiry science (PBIS) story (2008) (10)
- Portable Technologies: Science Learning in Context. Innovations in Science Education and Technology. (2001) (10)
- Success of students in a college physics course with and without experiencing a high school course (1989) (9)
- Applying machine learning to automatically assess scientific models (2022) (9)
- CROSS-CULTURAL COMPARISON OF PERCEPTIONS ON THE GLOBAL SCIENTIFIC LITERACY WITH AUSTRALIAN, CHINESE, AND KOREAN MIDDLE SCHOOL STUDENTS (2015) (9)
- Using Mobile Devices to Connect Teachers and Museum Educators (2017) (9)
- A Case Study of Project‐Based Learning of Middle School Students Exploring Water Quality (2019) (8)
- Assessment Strategies for Learner-Centered Software (2000) (8)
- Contextualizing Instruction in Project-Based Science: Activating Students' Prior Knowlege and Experiences to Support Learning (2004) (8)
- Students' awareness of audience in web-published science writing (1998) (8)
- High school chemistry as preparation for college chemistry (1987) (8)
- Learning Science (2020) (8)
- Conclusion and Summary Comments: Teaching Energy and Associated Research Efforts (2014) (8)
- Technological tools to support inquiry in a science methods course (1998) (8)
- Appears in June, 2001 issue of the Communications of the ACM Log on Education Column, Palm-Computing Devices are Ready-at-Hand (2001) (8)
- Using Storylines to Support Three-Dimensional Learning in Project-Based Science (2019) (8)
- Variations in Teacher Preparation Evaluation Systems: International Perspectives (2013) (8)
- Assessing the Nature of Learners' Science Content Understandings as a Result of Utilizing On-Line Resources. (1999) (7)
- Students making systems models An accessible approach (2017) (7)
- Synergy and Students’ Explanations: Exploring the Role of Generic and Content-Specific Scaffolds (2018) (7)
- Commentary—Applying Machine Learning in Science Assessment: Opportunity and Challenges (2021) (7)
- Transferring Knowledge in a Knowledge-in-Use Task—Investigating the Role of Knowledge Organization (2020) (7)
- EXPLORING THE ROLE OF INQUIRY AND REFLECTION IN SHARED SENSE-MAKING IN AN INQUIRY-BASED SCIENCE CLASSROOM: TOWARD A THEORY OF DISTRIBUTED SHARED SENSE-MAKING (2007) (7)
- Exploration of High School Students’ Concepts About Climate Change Through the Use of an Issue Concept Map (IC-Map) (2014) (7)
- The Use of Videotape To Analyze the Correspondence between the Verbal Commentary of Students and Their Actions When Using Different Levels of Instrumentation during Laboratory Activities. (1991) (6)
- Exploring a pathway towards energy conservation through emphasizing the connections between energy, systems, and fields (2021) (6)
- Designing and Assessing Scientific Explanation Tasks (2014) (6)
- Chemation: a handheld chemistry modeling and animation tool (2004) (6)
- The Development of Middle School Students Inquiry Strategies in Project Based-Science Classrooms (1996) (6)
- A Methodology for Determining and Validating Latent Factor Dimensionality of Complex Multi-Factor Science Constructs Measuring Knowledge-In-Use (2021) (6)
- Using Hypermedia to Represent Emerging Student Understanding: Science Learners and Preservice Teachers (2005) (6)
- Improving Science Achievement—Is It Possible? Evaluating the Efficacy of a High School Chemistry and Physics Project-Based Learning Intervention (2022) (6)
- Learning at the Nanoscale: Research Questions that the Rapidly Evolving Interdisciplinarity of Science Poses for the Learning Sciences (2006) (6)
- Supporting Equity in Virtual Science Instruction Through Project-Based Learning: Opportunities and Challenges in the Era of COVID-19 (2021) (6)
- U.S. and Finnish high school science engagement during the COVID‐19 pandemic (2021) (5)
- Classrooms: Initial Attempts by Middle School Students (2016) (5)
- Identifying Teacher Practices that Support Students ’ Explanation in Science (2005) (5)
- Using Technology to Support the Development of Conceptual Understanding of Chemical Representations (2000) (5)
- The relationship between teacher’s support of literacy development and elementary students’ modelling proficiency in project-based learning science classrooms (2020) (4)
- Linked In: Using Modeling as a Link to Other Scientific Practices, Disciplinary Core Ideas, and Crosscutting Concepts (2013) (4)
- An evaluation of the University of Iowa's science teacher education program, 1977-1984 (1986) (4)
- Inquiry through Portable Technology. (2002) (4)
- Model-It : A Case Study of Learner-Centered Design Software for Supporting Model Building (4)
- Students' Searching and Evaluating with the Artemis Interface to a Digital Library (2000) (4)
- Correction to: Supporting Student System Modelling Practice Through Curriculum and Technology Design (2021) (3)
- Learning science by doing design: How can it work at the middle school level? (2010) (3)
- Designing assessments to track student progress (2010) (3)
- Designing Technology Environments to Support System Modeling Competence (2019) (3)
- A framework for supporting systems thinking and computational thinking through constructing models (2022) (3)
- Designed for learners: applying software engineering to the development of scaffolded educational software (2003) (3)
- Assessing the Effect of Project-Based Learning on Science Learning in Elementary Schools (2022) (3)
- Teaching Science to Children (2014) (3)
- Measuring Integrated Knowledge - A Network Analytical Approach (2018) (3)
- Development and Application of $21^{st}$ Century Scientific Literacy Evaluation Framework on Korean High School Science Text Books (2012) (3)
- Connecting Computational Thinking and Science in a US Elementary Classroom (2020) (3)
- Student use of multimodal data and metadata tools during nomadic inquiry (2011) (3)
- Why Do Fishermen Need Forests? Developing a Project-Based Learning Unit With an Engaging Driving Question (2018) (3)
- Announcement from the. Publisher (1990) (3)
- Shifting the Balance: Engaging Students in Using a Modeling Tool to Learn about Ocean Acidification (2018) (3)
- The Design and Evaluation of Classroom Supports for Seamless Integration of a Dynamic Modeling Tool (2000) (3)
- How Do Geckos Stick (2008) (3)
- Helping Young Learners Make Sense of Data: A 21st-Century Capability (2011) (2)
- Exemplary Software for the Science Classroom (1987) (2)
- How Do Geckos Stick? Using Phenomena to Frame Project-Based Science in Chemistry Classes (2008) (2)
- Cognitive strategies in dynamic modeling: case studies of opportunities taken and missed (1996) (2)
- Engineering in IQWST (2015) (2)
- Supporting Contextualization: Lessons Learned from Throughout the Globe (2020) (2)
- New directions for JRST (2010) (2)
- The influence of an international professional development project for the design of engaging secondary science teaching in Finland (2017) (2)
- Examining Primary Teacher Expertise and Agency in the Collaborative Design of Project-Based Learning Innovations (2018) (2)
- Technology-Mediated Visualization and Interpretation of Chemical Phenomena by Middle School Students (2007) (2)
- The Activity Summary Board. (2018) (2)
- Supporting Teachers Using Palm Computers: Examining Classroom Practice over Time (2005) (2)
- Chemation: classroom impact of a handheld chemistry modeling and animation tool (2004) (2)
- The Next Generation Science Standards (2013) (2)
- Exploring middle school students' use of inscriptions in an inquiry-based science classroom (2004) (2)
- Special issue: Large-scale interventions in science education for diverse student groups in varied educational settings (2010) (2)
- Discipline-CenteredPost-SecondaryScienceEducationResearch : DistinctiveTargets , Challenges andOpportunities (2014) (1)
- Comparing Apples and Oranges: Using the National Science Education Standards as a Tool When Assessing Scientific Understandings. (2002) (1)
- Secondary Students' Beliefs About Their Interests In Nanoscale Science And Engineering (2007) (1)
- Pseudo AI Bias (2022) (1)
- Symphony: exploring user interface representations for learner-centered process scaffolding (1998) (1)
- Supporting Students in Using Energy Ideas to Interpret Phenomena: The Role of an Energy Representation (2019) (1)
- From theory of mind to a theory of distributed shared sense-making (2007) (1)
- Inscriptional Practices in Inquiry-Based Classrooms: How Do Seventh Graders Construct and Interpret Data Tables and Graphs?. (2003) (1)
- High School Teachers’ Perspectives on Shifting towards Teaching NGSS-Aligned Project Based Learning Curricular Units (2021) (1)
- Motivating preservice physics teachers to low-socioeconomic status schools (2020) (1)
- The impact of animation-related practice on middle school students' understanding of chemistry concepts (2007) (1)
- Supporting Student System Modelling Practice Through Curriculum and Technology Design (2021) (1)
- High School Students' Optimal Learning Moments: A Network Analysis Approach (2020) (1)
- Journal of Research in Science Teaching annual report: January 1, 2010 to December 31, 2010 (2011) (1)
- Constructing Assessment Items that Blend Core Ideas and Science Practices (2014) (1)
- Emergent Design Heuristics for Three-Dimensional Classroom Assessments that Promote Equity (2020) (1)
- Exploring Middle School Science Students ' Modeling Process and Strategies When Using a Computational Modeling Tool (2001) (1)
- COMMENT ON: CONCEPT MAPPING AND REPRESENTATIONAL SYSTEMS. AUTHORS' REPLY (1996) (1)
- Commentary—Applying Machine Learning in Science Assessment: Opportunity and Challenges (2021) (0)
- Using learning performances to design science assessments that measure knowledge-in-use (2016) (0)
- Missing Coherence in STEM Education: Creating Design-Based Pedagogical Content Knowledge in a Teacher Education Program (2020) (0)
- A description of the teacher questioning patterns used in the critique sessions of a Design Based Science Curriculum (2003) (0)
- Watered-down college chemistry [1] (multiple letters) (1989) (0)
- Managing the Science Classroom (2014) (0)
- Comparing the impact of computer-based versus physical molecular models on middle school students' learning of chemistry concepts (2006) (0)
- Learner-centered design of chemation: A handheld tool for middle-school chemistry (2005) (0)
- A Reform-based Framework for Observing Teaching (2004) (0)
- Exploring the role of two modeling tools in supporting middle school student learning of the particulate nature of matter (2005) (0)
- The Development of Argumentation Skills and Content Knowledge of (2009) (0)
- Watered-Down College Chemistry (author response) (1989) (0)
- A response to “how similar are they?” (1990) (0)
- Incorporating Mathematical Thinking and Engineering Design into High School STEM Physics: A Case Study (2020) (0)
- CROSS-CULTURAL COMPARISON OF PERCEPTIONS ON THE GLOBAL SCIENTIFIC LITERACY WITH AUSTRALIAN, CHINESE, AND KOREAN MIDDLE SCHOOL STUDENTS (2013) (0)
- Assessing Student Understanding (2014) (0)
- Synergy and Students’ Explanations: Exploring the Role of Generic and Content-Specific Scaffolds (2016) (0)
- 2. Project-Based Learning in U.S. Physics Classrooms (2020) (0)
- Global Scientific Literacy Questionnaire (2018) (0)
- How Children Construct Understanding of Science (2014) (0)
- Instructional Strategies That Support Project-Based Learning (2014) (0)
- Why Learning Science Matters (2020) (0)
- Comments on Section 3: Innovative Technologies for Science Learning and Instruction in Taiwan: A Global Perspective (2016) (0)
- THE RELATIONSHIP BETWEEN TEACHER CONTENT AND PEDAGOGICAL (1999) (0)
- How Teachers Support Student Computational Thinking Practices (2020) (0)
- Publication of technology‐based design articles in the Journal of Research in Science Teaching (2000) (0)
- Predicting student science achievement using post‐unit assessment performances in a coherent high school chemistry project‐based learning system (2022) (0)
- Cognitive Performances in Dynamic Modeling: Case Studies of Opportunities Taken and Missed (1996) (0)
- Developing Scientifi c Investigations (2014) (0)
- Appendix D: Single-Case Design (2020) (0)
- Ninth-Grade Student Engagement in Teacher-Centered and Student-Centeredced Learning Environments (2007) (0)
- Characterizing Teachers' Support of Modeling Practices in Science Classrooms (2014) (0)
- Designing and Assessing Scientific Modeling Tasks (2014) (0)
- 4. How Learning Science Affects Emotions and Achievement (2020) (0)
- Appendix B: Storyline for the Physics Force and Motion Unit (2020) (0)
- Making Sense of Data and Sharing Findings (2018) (0)
- AC 2007-2278: SECONDARY STUDENTS' BELIEFS ABOUT THEIR INTERESTS IN NANOSCALE SCIENCE AND ENGINEERING (2007) (0)
- What Energy Ideas Matter for Future Learning? (2020) (0)
- On the Validity of Machine Learning-based Next Generation Science Assessments: A Validity Inferential Network (2021) (0)
- Establishing and Maintaining Relevance to Students’ Lives (2018) (0)
- Discipline-CenteredPost-SecondaryScienceEducationResearch: UnderstandingUniversityLevelScienceLearning (2013) (0)
- Editorial: AI for tackling STEM education challenges (2023) (0)
- Developing Assessment Tasks to Promote Student Sensemaking of Phenomena and Flexible Thinking (2018) (0)
- Using Drawing Technology to Assess Students’ Visualizations of Chemical Reaction Processes (2013) (0)
- Appendix A: The Crafting Engagement in Science Environments Study (2020) (0)
- The Impact of Using Coherent Curriculum on Students’ Understanding of Core Ideas in Chemistry (2017) (0)
- Using Mobile Devices to Connect Teachers and Museum Educators (2016) (0)
- Exploration of Science Teachers' Informal Mentoring Experience in their First Years and their Professional Development (2012) (0)
- Reflections on Integrated Approaches to STEM Education: An International Perspective (2020) (0)
- 1. Creating Science Activities That Engage and Inspire (2020) (0)
- Planning a Project-Based Curriculum (2014) (0)
- Engaging students in three-dimensional learning (2015) (0)
- Improving Middle School Students' Understanding of Core Science Ideas Using Coherent Curriculum (2012) (0)
- The Challenge of Assessing "Knowledge in Use": Examples from Three-Dimensional Science Learning and Instruction (2018) (0)
- Engaging Learners in the Doing of Science (2018) (0)
- Collaboration in the Science Classroom (2014) (0)
- 6. Encouraging Three-Dimensional Learning (2020) (0)
- Collaboration in the Project-Based Learning Classroom (2018) (0)
- A Learning Progression for Celestial Motion (2008) (0)
- Integrating Technology Into a Science Methods Course (1996) (0)
- Appendix C: Student and Teacher ESM Questionnaires (2020) (0)
- 3. Project-Based Learning in Finnish Physics Classrooms (2020) (0)
- Commentary on Chinn’s & Samarapungavan’s Paper (2008) (0)
- Advancing the field through multiple media (2010) (0)
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