Skip to main content
 

feature

Self-Regulated Learning Strategies for the Introductory Physics Course With Minimal Instructional Time Required

Journal of College Science Teaching—May/June 2022 (Volume 51, Issue 5)

By Stephanie Toro

Self-regulated learning (SRL) is the metacognitive aspect of learning that goes beyond learning content and skills. With SRL, students are aware of their content understanding and learning progress and use advanced thinking skills to create goals and improve their academic achievement. In this action research, SRL strategies were integrated into the instruction of an Introduction to Physics I university course so that students could better understand their learning progress and development throughout the course. Some of the strategies to develop SRL skills included diagnostic tests with group review, exam wrappers, and metacognition checks, as well as providing structure for office hours and learning plans for students. These strategies not only taught students SRL skills but also shifted the focus of learning to a more individualized perspective that emphasized growth mindset processes rather than attention to having the right answers. As a result, with the implementation of these simple strategies, students’ performance and self-efficacy improved, they earned higher average scores on tests and exams, and their attendance increased significantly throughout the semester.

 

Self-regulated learning (SRL) is the metacognitive aspect of learning that goes beyond learning content and skills. With SRL, students are aware of their content understanding and learning progress and use advanced thinking skills to create goals and improve their academic achievement. In this action research, SRL strategies were integrated into the instruction of an Introduction to Physics I university course so that students could better understand their learning progress and development throughout the course.
Self-regulated learning (SRL) is the metacognitive aspect of learning that goes beyond learning content and skills. With SRL, students are aware of their content understanding and learning progress and use advanced thinking skills to create goals and improve their academic achievement. In this action research, SRL strategies were integrated into the instruction of an Introduction to Physics I university course so that students could better understand their learning progress and development throughout the course.
 

Feature

Interdisciplinary Lessons on Energy and Entropy

Journal of College Science Teaching—May/June 2022 (Volume 51, Issue 5)

By Mika Munakata, Ashwin Vaidya, and Dirk Vanderklein

This article presents ideas and narratives of an experiment on the concept of energy developed for an honors seminar on energy and a mechanics course. We argue that energy is an idea best taught in an interdisciplinary manner. While most physics courses explore ideas such as mechanical energy and conservation of energy, it is imperative that a more practical view of energy as fuel be addressed since this has particular relevance to our students’ future. We believe energy cannot be discussed without talking about entropy and that a proper introduction to energy can only be made by simultaneously discussing the idea of entropy. In this article, we present one lab activity related to carbon emissions from bicycling, designed to help elucidate this idea through the use of conceptual metaphors and embodied learning. The learning goals of the activity were to encourage students to understand that energy and entropy are intricately related and to have students gain a deeper understanding of the concepts by considering and discussing ways in which they apply to different contexts. We discuss the rationale, implementation, and outcomes of the activity.  

 

This article presents ideas and narratives of an experiment on the concept of energy developed for an honors seminar on energy and a mechanics course. We argue that energy is an idea best taught in an interdisciplinary manner. While most physics courses explore ideas such as mechanical energy and conservation of energy, it is imperative that a more practical view of energy as fuel be addressed since this has particular relevance to our students’ future.
This article presents ideas and narratives of an experiment on the concept of energy developed for an honors seminar on energy and a mechanics course. We argue that energy is an idea best taught in an interdisciplinary manner. While most physics courses explore ideas such as mechanical energy and conservation of energy, it is imperative that a more practical view of energy as fuel be addressed since this has particular relevance to our students’ future.
cover
Volume 51
Number 4
This month’s issue of features interdisciplinary lessons for teaching energy and entropy, self-regulated learning strategies for an introductory physics course, an investigation of elementary pre-service teachers’ beliefs about teaching and learning, with a special article on social justice service-learning at an HBCU in
cover
Volume 51
Number 4
This month’s issue of features interdisciplinary lessons for teaching energy and entropy, self-regulated learning strategies for an introductory physics course, an investigation of elementary pre-service teachers’ beliefs about teaching and learning, with a special article on social justice service-learning at an HBCU in
cover
Volume 51
Number 4
This month’s issue of features interdisciplinary lessons for teaching energy and entropy, self-regulated learning strategies for an introductory physics course, an investigation of elementary pre-service teachers’ beliefs about teaching and learning, with a special article on social justice service-learning at an HBCU in
 

Special Report

Social Justice Service-Learning at an HBCU

Transforming Courses in the Wake of COVID-19

Journal of College Science Teaching—May/June 2022 (Volume 51, Issue 5)

By Nastassia N. Jones and Francesca M. Mellieon-Williams

Integrating social issues into biology courses may be of particular interest for educators seeking to create inclusive science environments that support diverse populations. This social justice–focused service-learning project extended a partnership between a social justice institute and a nonprofit organization into an undergraduate introductory genetics course at a small, private Historically Black College and University. For this project, the foundation of gene expression and regulation in an introductory genetics course was used to link sustainable agriculture to food justice issues. In-class activities focused on introducing students to genetically modified foods and using bioinformatic tools to explore genes and proteins. Out-of-class opportunities exposed students to the benefits and impacts of sustainable agriculture. Students had a positive experience with the project and believed the service benefitted the community. As institutions of higher education consider what the educational structure should look like in the face of the COVID-19 pandemic and the new normal, projects such as the one described in this article can be used in alternative learning formats to continue best practices in education, such as active learning, which have been shown to work well for diverse groups of students.

 

Integrating social issues into biology courses may be of particular interest for educators seeking to create inclusive science environments that support diverse populations. This social justice–focused service-learning project extended a partnership between a social justice institute and a nonprofit organization into an undergraduate introductory genetics course at a small, private Historically Black College and University.
Integrating social issues into biology courses may be of particular interest for educators seeking to create inclusive science environments that support diverse populations. This social justice–focused service-learning project extended a partnership between a social justice institute and a nonprofit organization into an undergraduate introductory genetics course at a small, private Historically Black College and University.
 

Point of View

Why Do People Say, “I Believe in Science”?

Journal of College Science Teaching—May/June 2022 (Volume 51, Issue 5)

By Kristy M. Palmer

Many people in the general public say, “I believe in science.” Why don’t they say, “I believe in reading” or similar statements about other subjects? Perhaps people say, “I believe in science” because science is different than other subjects; the nature of science explains the difference. Science is tentative and based on the best empirical evidence available. All educators and administrators (not just science teachers) in K–12 schools set an example for children, and they should work to appreciate, use, and help students understand science. Learning about the nature of science should be required for all future teachers and administrators. Developing an understanding of the nature of science might help mitigate the effects of COVID-19 while setting an example for how society can use science to curb future pandemics and address other challenges.

 

Many people in the general public say, “I believe in science.” Why don’t they say, “I believe in reading” or similar statements about other subjects? Perhaps people say, “I believe in science” because science is different than other subjects; the nature of science explains the difference. Science is tentative and based on the best empirical evidence available. All educators and administrators (not just science teachers) in K–12 schools set an example for children, and they should work to appreciate, use, and help students understand science.
Many people in the general public say, “I believe in science.” Why don’t they say, “I believe in reading” or similar statements about other subjects? Perhaps people say, “I believe in science” because science is different than other subjects; the nature of science explains the difference. Science is tentative and based on the best empirical evidence available. All educators and administrators (not just science teachers) in K–12 schools set an example for children, and they should work to appreciate, use, and help students understand science.
 

Teaching Teachers

From Math Methods and Science Methods…To STEM Methods

How university courses were integrated into a more meaningful experience for preservice teachers

Science and Children—May/June 2022 (Volume 59, Issue 5)

By Lisa Douglass, Cherry Steffen, and David Pownell

 

Start With Phenomena

Growing With Phenomenon

Plant investigations pique curiosity and wonder

Science and Children—May/June 2022 (Volume 59, Issue 5)

By Tiffany Pace

 

Cross-curricular Connections

Cross-grade Collaboration

When students of different ages work together, social and emotional learning is enhanced

Science and Children—May/June 2022 (Volume 59, Issue 5)

By Debbie Ericksen and Rachel Glassman

 

Science 101

Q: What Makes a Great Science Investigation?

Science and Children—May/June 2022 (Volume 59, Issue 5)

By Matt Bobrowsky

Q: What Makes a Great Science Investigation?

 

Engineering Encounters

I Will Survive

An Engineering Design Challenge for the Virtual Classroom

Science and Children—May/June 2022 (Volume 59, Issue 5)

By Kristin Cook and Jessica Ivy

Subscribe to
Asset 2