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Using a Socioscientific Issues Approach in an Undergraduate Environmental Science Course

Journal of College Science Teaching—Fall 2023 (Volume 52, Issue 7)

By Mark H. Newton

A perennial goal of science educators is to develop functional scientific literacy in their students, especially those who will not become professional scientists. This article provides an example of implementing a socioscientific issues approach in an undergraduate environmental science course that enables students to develop the knowledge, reasoning, and skills requisite for resolving complex issues in a sustainable manner for people and the environment now and in the future. This example incorporates an interdisciplinary approach by leveraging traditional laboratory investigations and information from outside of science proper to facilitate a deeper and more nuanced understanding of gray wolves returning to Northern California.
A perennial goal of science educators is to develop functional scientific literacy in their students, especially those who will not become professional scientists. This article provides an example of implementing a socioscientific issues approach in an undergraduate environmental science course that enables students to develop the knowledge, reasoning, and skills requisite for resolving complex issues in a sustainable manner for people and the environment now and in the future.
A perennial goal of science educators is to develop functional scientific literacy in their students, especially those who will not become professional scientists. This article provides an example of implementing a socioscientific issues approach in an undergraduate environmental science course that enables students to develop the knowledge, reasoning, and skills requisite for resolving complex issues in a sustainable manner for people and the environment now and in the future.
 

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Emphasis on Quality in iNaturalist Plant Collections Enhances Learning and Research Utility

Journal of College Science Teaching—Fall 2023 (Volume 52, Issue 7)

By Mason C. McNair, Chelsea M. Sexton, and Mark Zenoble

Following the switch to remote online teaching in the wake of the COVID-19 pandemic, the plant taxonomy course at the University of Georgia (UGA) switched to iNaturalist for the specimen collection portion of the course requirements. Building off extant rubrics, the instructors designed project guidelines for a fully online plant collection experience to alleviate plant awareness disparity. Researchers collected stratified samples from the UGA iNaturalist project along with four other institutions’ projects to determine if rubrics and project guidelines could improve the quality of observations to make them useful in plant science research. The specific rubric was shown to improve quality of iNaturalist observations. Researchers found that iNaturalist increased engagement as a student-centered tool but did not enhance students’ manual keying skills, as the app uses automatic identification. Instructors recommend continuing to use iNaturalist to supplement physical collection and keying along with a detailed rubric and guidelines for collection.
Following the switch to remote online teaching in the wake of the COVID-19 pandemic, the plant taxonomy course at the University of Georgia (UGA) switched to iNaturalist for the specimen collection portion of the course requirements. Building off extant rubrics, the instructors designed project guidelines for a fully online plant collection experience to alleviate plant awareness disparity.
Following the switch to remote online teaching in the wake of the COVID-19 pandemic, the plant taxonomy course at the University of Georgia (UGA) switched to iNaturalist for the specimen collection portion of the course requirements. Building off extant rubrics, the instructors designed project guidelines for a fully online plant collection experience to alleviate plant awareness disparity.
 

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Undergraduate Learning Assistants Foster Students’ Resilience During Transition to Online Learning in a Large Microbiology Classroom

Journal of College Science Teaching—Fall 2023 (Volume 52, Issue 7)

By Kathleen Hefferon and Esther Angert

The COVID-19 pandemic led to a series of emergency transitions to online learning for academic institutions around the world. Previous studies have shown that undergraduate Learning Assistants (LAs) improve student engagement in classroom activities and learning outcomes. In this article, we describe the design and implementation of an LA program to support students in a large microbiology course during the transition to remote learning. We demonstrate that students were more likely to engage with LAs and participate in LA-led classroom activities. LAs promoted more help-seeking behavior from the students and, as a result, contributed to improvements in learning gains. Incorporating LAs into the classroom can thus foster students’ resilience in the face of the current and possible future pandemics. 
The COVID-19 pandemic led to a series of emergency transitions to online learning for academic institutions around the world. Previous studies have shown that undergraduate Learning Assistants (LAs) improve student engagement in classroom activities and learning outcomes. In this article, we describe the design and implementation of an LA program to support students in a large microbiology course during the transition to remote learning. We demonstrate that students were more likely to engage with LAs and participate in LA-led classroom activities.
The COVID-19 pandemic led to a series of emergency transitions to online learning for academic institutions around the world. Previous studies have shown that undergraduate Learning Assistants (LAs) improve student engagement in classroom activities and learning outcomes. In this article, we describe the design and implementation of an LA program to support students in a large microbiology course during the transition to remote learning. We demonstrate that students were more likely to engage with LAs and participate in LA-led classroom activities.
 

methods & strategies

Family Science Clubs

Ideas to get families excited about science

Science and Children—Fall 2023 (Volume 60, Issue 7)

By M. Gail Jones and Megan Ennes

Family Science Clubs

Educators are increasingly recognizing that significant amounts of science learning take place over the course of one’s lifetime and that much of this learning takes place outside of school settings (NRC 2009). Americans spend on average “less than 5 percent of their life in classrooms” (Falk and Dierking 2010, p. 486).
Educators are increasingly recognizing that significant amounts of science learning take place over the course of one’s lifetime and that much of this learning takes place outside of school settings (NRC 2009). Americans spend on average “less than 5 percent of their life in classrooms” (Falk and Dierking 2010, p. 486).
Educators are increasingly recognizing that significant amounts of science learning take place over the course of one’s lifetime and that much of this learning takes place outside of school settings (NRC 2009). Americans spend on average “less than 5 percent of their life in classrooms” (Falk and Dierking 2010, p. 486).
 

science 101

Q: What Can My Students See During the Upcoming Solar Eclipses?

Science and Children—Fall 2023 (Volume 60, Issue 7)

By Matt Bobrowsky

Q: What Can My Students See During the Upcoming Solar Eclipses?

A: It depends on where you are located. But first let’s briefly review what happens during a solar eclipse and clear up a few popular misconceptions about solar eclipses. You probably know that a solar eclipse occurs when the Moon passes between the Earth and Sun. The usual diagram that you’ll find in textbooks and countless websites looks something like Figure 1.
A: It depends on where you are located. But first let’s briefly review what happens during a solar eclipse and clear up a few popular misconceptions about solar eclipses. You probably know that a solar eclipse occurs when the Moon passes between the Earth and Sun. The usual diagram that you’ll find in textbooks and countless websites looks something like Figure 1.
A: It depends on where you are located. But first let’s briefly review what happens during a solar eclipse and clear up a few popular misconceptions about solar eclipses. You probably know that a solar eclipse occurs when the Moon passes between the Earth and Sun. The usual diagram that you’ll find in textbooks and countless websites looks something like Figure 1.
 

teaching teachers

Making the Most of Field Trips

Envisioning how to connect field trips to the curriculum sets preservice teachers up for success.

Science and Children—Fall 2023 (Volume 60, Issue 7)

By Nicole Hesson

Making the Most of Field Trips

Field trips can be a unique way to engage elementary students in science content. However, budget cuts and a focus on standardized testing are causing some schools to greatly reduce the funding for field trips (Meyer 2008). In the wake of the last recession, 33% of districts nationwide eliminated field trips altogether (Mongeau 2015). The COVID-19 pandemic has also had a negative impact on the logistic feasibility and budget allotment for field trips. The benefits of field trips—particularly for underprivileged students—have been widely studied (Behrendt and Franklin 2014; Mongeau 2015). Field trips can provide a way for teachers to bring science to life and better integrate higher-order thinking skills into lessons. According to Kisiel (2005), “although teachers may report that a primary reason for including the field trip experience is to support what they are teaching in class, studies suggest that this curriculum connection is sometimes quite weak.” In today’s financial climate, field trips are more likely to be funded if there is a clear curricular connection. Ensuring a strong relationship between classroom and out-of-school learning is something that must be taught in preservice teacher education programs.
Field trips can be a unique way to engage elementary students in science content. However, budget cuts and a focus on standardized testing are causing some schools to greatly reduce the funding for field trips (Meyer 2008). In the wake of the last recession, 33% of districts nationwide eliminated field trips altogether (Mongeau 2015). The COVID-19 pandemic has also had a negative impact on the logistic feasibility and budget allotment for field trips.
Field trips can be a unique way to engage elementary students in science content. However, budget cuts and a focus on standardized testing are causing some schools to greatly reduce the funding for field trips (Meyer 2008). In the wake of the last recession, 33% of districts nationwide eliminated field trips altogether (Mongeau 2015). The COVID-19 pandemic has also had a negative impact on the logistic feasibility and budget allotment for field trips.
 

engineering encounters

Cardboard City

A whole-school integrative engineering experience

Science and Children—Fall 2023 (Volume 60, Issue 7)

By Julie Jackson, Julie Brenegan, Kristi Wagner, and Michelle Berry

Cardboard City

Cardboard, a common maker space material, is inexpensive, readily available, and durable. It is also easy to manipulate. It can be folded, cut, painted, and taped or glued together. Caine’s Arcade, a video featuring Caine Monroy’s cardboard arcade, inspired countless cardboard maker space events and engineering design challenges (see Online Resources). For several years, we held multi-grade level cardboard arcade engineering design challenges. Participating students designed and built cardboard arcade games that were displayed in school hallways. However, this year, we wanted to elevate our K–5 grade cardboard engineering challenge to support other school subjects such as technology, language arts, math, and social studies and we wanted it to be interactive—not just a display. We decided that a “cardboard city” engineering challenge might provide the interactive and integrative opportunities we wanted.
Cardboard, a common maker space material, is inexpensive, readily available, and durable. It is also easy to manipulate. It can be folded, cut, painted, and taped or glued together. Caine’s Arcade, a video featuring Caine Monroy’s cardboard arcade, inspired countless cardboard maker space events and engineering design challenges (see Online Resources). For several years, we held multi-grade level cardboard arcade engineering design challenges. Participating students designed and built cardboard arcade games that were displayed in school hallways.
Cardboard, a common maker space material, is inexpensive, readily available, and durable. It is also easy to manipulate. It can be folded, cut, painted, and taped or glued together. Caine’s Arcade, a video featuring Caine Monroy’s cardboard arcade, inspired countless cardboard maker space events and engineering design challenges (see Online Resources). For several years, we held multi-grade level cardboard arcade engineering design challenges. Participating students designed and built cardboard arcade games that were displayed in school hallways.
 

start with phenomena

How Does Sound Travel in a String?

Facilitating a change in sound conception with fourth graders

Science and Children—Fall 2023 (Volume 60, Issue 7)

By Gang Shu, Xiaowei Tang, and Huimin Chen

How Does Sound Travel in a String?

In Chinese science curriculum, the sound unit generally starts with observing various sound making phenomena and finding out that they all involve vibration. (In China, the elementary science curriculum standards assign all sound-related content to the 3–4 grade band, including the idea that vibrating matter makes sound, which was assigned to the K–2 grade band in the Next Generation Science Standards [NGSS].) In previous teaching, we noticed that although our fourth graders could relate sound with vibrating matter after such learning, they would keep applying properties of matter when explaining sound-related phenomena, such as describing echo as “very small sound beads that hit the wall and bounce back.” Such observations motivated us to pursue a conceptual change, helping students conceptualize sound as energy rather than matter. Understanding sound as a form of energy and that energy can travel from place to place through sound falls under the fourth-grade expectations in NGSS (4-PS3-2; 4-PS3-3; NGSS Lead States 2013). It requires treating sound as a process of vibrating motion, so that vibration strength can be associated with the amount of energy, and the propagation of vibration can be seen as energy transfer.
In Chinese science curriculum, the sound unit generally starts with observing various sound making phenomena and finding out that they all involve vibration.
In Chinese science curriculum, the sound unit generally starts with observing various sound making phenomena and finding out that they all involve vibration.
 

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Computational Modeling With Multilingual Learners

Integration across four science units

Science and Children—Fall 2023 (Volume 60, Issue 7)

By Alison Haas, Scott E. Grapin, Lorena Llosa, and Okhee Lee

Computational Modeling With Multilingual Learners

While the vision for science education through A Framework for K–12 Science Education (NRC 2012) and the Next Generation Science Standards (NGSS) continues to take hold in classrooms across the nation, computational modeling is becoming increasingly essential in school and society. Computational models, or “representations of phenomena that can be simulated by a computer” (Weintrop et al. 2015, p. 137), are reshaping the way science is practiced in increasingly diverse classrooms, as all students, including multilingual learners (MLs), can use computational models to develop and test explanations of phenomena. However, teachers lack high-quality science curricula that integrate computational modeling in purposeful ways and with explicit attention to student diversity.
While the vision for science education through A Framework for K–12 Science Education (NRC 2012) and the Next Generation Science Standards (NGSS) continues to take hold in classrooms across the nation, computational modeling is becoming increasingly essential in school and society. Computational models, or “representations of phenomena that can be simulated by a computer” (Weintrop et al. 2015, p.
While the vision for science education through A Framework for K–12 Science Education (NRC 2012) and the Next Generation Science Standards (NGSS) continues to take hold in classrooms across the nation, computational modeling is becoming increasingly essential in school and society. Computational models, or “representations of phenomena that can be simulated by a computer” (Weintrop et al. 2015, p.
 

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Growing Students' Meaning-Making

Germinating seeds provides opportunities to build teacher capacity for promoting sensemaking.

Science and Children—Fall 2023 (Volume 60, Issue 7)

By Patrick Brown, Jessica Fries-Gaither, and Kathy Renfrew

Growing Students' Meaning-Making

In this sensemaking lesson, K–2 students explore how different factors influence seed germination and explain the elements necessary to sprout. Notebook strategies are embedded throughout the explore-before-explain lesson to help students organize budding ideas. The class begins by engaging students’ initial ideas about factors needed for a seed to grow. The lesson is designed to provide students with firsthand experiences collecting data on seeds needing specific requirements to germinate. As students gather data from their explorations, they look for patterns and cause-and-effect relationships to construct and revise an explanation of what requirements seeds need to sprout and the factors that affect the growth of the germinated seeds (seedlings). With teacher guidance, students learn terms for specialized plant structures observed during their exploration. At the end of the lesson, students revisit their initial ideas and revise their claims using crosscutting concepts of patterns and cause and effect to construct a scientific explanation with evidence from their investigations. This article shares a model lesson (see Brown and Keeley 2023) and reflects on the key planning considerations connected to research to help elementary teachers and leaders consider instructional design from a more pedagogical perspective.
In this sensemaking lesson, K–2 students explore how different factors influence seed germination and explain the elements necessary to sprout. Notebook strategies are embedded throughout the explore-before-explain lesson to help students organize budding ideas. The class begins by engaging students’ initial ideas about factors needed for a seed to grow. The lesson is designed to provide students with firsthand experiences collecting data on seeds needing specific requirements to germinate.
In this sensemaking lesson, K–2 students explore how different factors influence seed germination and explain the elements necessary to sprout. Notebook strategies are embedded throughout the explore-before-explain lesson to help students organize budding ideas. The class begins by engaging students’ initial ideas about factors needed for a seed to grow. The lesson is designed to provide students with firsthand experiences collecting data on seeds needing specific requirements to germinate.
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