Elementary

Scaffolding: Definition, Current Debates, and Future Directions

Instructional scaffolding can be de fi ned as support provided by a teacher/parent, peer, or a computer- or a paper-based tool that allows students to meaningfully participate in and gain skill at a task that they would be unable to complete unaided. The metaphor of scaffolding has been applied to instruction in contexts ranging from literacy education to science education, and among individuals ranging from infants to graduate students. In this chapter, scaffolding is defined and its theoretical backing is explored. Then scaffolding strategies and examples are explored.

Author/Presenter

Brian R. Belland

Year
2013

A Framework for Designing Scaffolds That Improve Motivation and Cognition

A problematic, yet common, assumption among educational researchers is that when teachers provide authentic, problem-based experiences, students will automatically be engaged. Evidence indicates that this is often not the case.

Author/Presenter

Brian R. Belland

ChanMin Kim

Michael J. Hannafin

Year
2013

Toward a framework on how affordances and motives can drive different uses of scaffolds: theory, evidence, and design implications

One way to help students engage in higher-order thinking is through scaffolding, which can be defined as support that allows students to participate meaningfully in and gain skill at a task that is beyond their unassisted abilities. Most research on computer-based scaffolds assesses the average impact of the tools on learning outcomes. This is problematic in that it assumes that computer-based scaffolds impact different students in the same way.

Author/Presenter

Brian R. Belland

Joel Drake

Year
2013

Moving STEM Education Forward: National Priorities and the National Science Foundation’s DR K-12 Program

What does the United States need to do to build future generations’ knowledge and skills in science, technology, engineering, and mathematics (STEM), and what kinds of research and innovation can enable the needed changes in teaching and learning? This brief describes examples of research and development (R&D) sponsored by the National Science Foundation (NSF) that are designed to advance knowledge and practice in STEM education. It highlights just a few of the many R&D projects that have the potential to equip educators in pursuing national priorities for STEM education.

Author/Presenter

Derek Riley

Colleen McCann

Yvonne Woods

Year
2013
Short Description

What does the United States need to do to build future generations’ knowledge and skills in science, technology, engineering, and mathematics (STEM), and what kinds of research and innovation can enable the needed changes in teaching and learning? This brief describes examples of research and development (R&D) sponsored by the National Science Foundation (NSF) that are designed to advance knowledge and practice in STEM education. It highlights just a few of the many R&D projects that have the potential to equip educators in pursuing national priorities for STEM education.

Descriptive Portfolio Overview of Discovery Research K-12 (DR K-12) Projects Funded from 2007 to 2012

The Community for Advancing Discovery Research in Education (CADRE) was funded by a cooperative agreement, beginning in 2008, as the resource network that supports the DR K-12 community in advancing the state of research and evaluation in STEM education, and furthering the goals of the DR K-12 program. As part of its work, CADRE annually conducts a review of the DRK-12 portfolio.

Author/Presenter

Alina Martinez

Brian Freeman

Daphne Minner

Laurie Bozzi

Carolyn Callahan

Lead Organization(s)
Year
2013
Short Description

This overview is intended to describe the scope and depth of research and development DR K-12 has funded and to identify areas that could be advanced by further investigations by CADRE. The overview summarizes the 351 projects that met the criteria for inclusion and analysis.

STEM Smart Brief: Engineering: Emphasizing the “E” in STEM Education

Author/Presenter

CADRE

Year
2013
Short Description

“Engineering is taught only sporadically in K-12 schools, despite growing evidence that engaging in engineering education leads to improved student learning and achievement in mathematics and science, in part by connecting these subjects to real-world problems.” Read this brief to learn more about the increasing efforts to integrate engineering into the K-12 curriculum.

STEM Smart Brief: Connecting Informal and Formal STEM Education

Author/Presenter

CADRE

Year
2012
Short Description

“Providing a richness of resources unavailable in any classroom, informal science institutions across the country have developed exemplary partnerships with public schools—and have room for more.” Read this brief to explore how out-of-school learning can complement and enhance what is being taught in the classroom.

STEM Smart Brief: Raising the Bar: Increasing STEM Achievement for All Students

Author/Presenter

CADRE

Year
2012
Short Description

“When students from non-mainstream backgrounds receive equitable learning opportunities, they are capable of attaining science outcomes comparable to their mainstream peers. The same is true for mathematics and, presumably, for other STEM subjects, as well.” Read this brief to dive further into what can be done to improve the academic achievement of students from all backgrounds.

STEM Smart Brief: Improving STEM Curriculum and Instruction: Engaging Students and Raising Standards

Author/Presenter

CADRE

Year
2012
Short Description

“For effective K–12 STEM instruction to become the norm, schools and districts must be transformed.” Read this brief to learn more about curriculum and instructional methods that engage students in the learning process.

STEM Smart Brief: Preparing and Supporting STEM Educators

Author/Presenter

CADRE

Year
2012
Short Description

“Recent research emphasizes that teacher quality alone cannot improve student achievement at scale. School leadership, staff collaboration, and a positive climate are among essential organizational elements that contribute to meaningful change.” Read this brief to learn more about suggested methods for properly supporting STEM educators.