skip to main content
US FlagAn official website of the United States government
dot gov icon
Official websites use .gov
A .gov website belongs to an official government organization in the United States.
https lock icon
Secure .gov websites use HTTPS
A lock ( lock ) or https:// means you've safely connected to the .gov website. Share sensitive information only on official, secure websites.

Explore Research Products in the PAR
It may take a few hours for recently added research products to appear in PAR search results.


Title: The culturally responsive science teaching practices of undergraduate biology teaching assistants
Abstract Science as an enterprise has been and continues to be exclusionary, perpetuating inequities among whose voice is heard as well as what/whose knowledge is recognized as valid. Women, people of color, and persons with disabilities are still vastly outnumbered in science and engineering by their White, male counterparts. These types of imbalances create a gatekeeping culture of inequity and inaccessibility, particularly for traditionally underrepresented students. Science classrooms, especially at the undergraduate level, strive to mimic the broader practices of the scientific community and therefore have tremendous potential to perpetuate the exclusion of certain groups of people. They also have, however, the potential to be a catalyst for equitable participation in science. Utilizing pedagogies of empowerment such as culturally responsive science teaching (CRST) in undergraduate classrooms can mitigate the gatekeeping phenomenon seen in science. Teaching assistants (TAs) engage in more one‐on‐one time with students than most faculty in undergraduate biology education, yet minimal pedagogical training is offered to them. Therefore, training for improved pedagogical knowledge is important for TAs, but training for CRST is critical as TAs have broad and potentially lasting impact on students. This study explores the ways in which undergraduate biology TAs enact CRST. Using constructivist grounded theory methods, this study examined TAs' reflections, observation field notes, semistructured interviews, and focus groups to develop themes surrounding their enactment of CRST. Findings from this study showed that undergraduate biology TAs enact CRST in ways described by four themes:Funds of Knowledge Connections,Differentiating Instruction,Intentional Scaffolding, andReducing Student Anxiety. These findings provide new insights into the ways undergraduate science education might be reimagined to create equitable science learning opportunities for all students.  more » « less
Award ID(s):
1712033
PAR ID:
10449155
Author(s) / Creator(s):
 ;  ;  
Publisher / Repository:
Wiley Blackwell (John Wiley & Sons)
Date Published:
Journal Name:
Journal of Research in Science Teaching
Volume:
58
Issue:
9
ISSN:
0022-4308
Page Range / eLocation ID:
p. 1320-1358
Format(s):
Medium: X
Sponsoring Org:
National Science Foundation
More Like this
  1. ; (, Education Sciences)
    Vergara, D; Jeronen, E (Ed.)
    Visual representations are essential to scientific research and teaching, playing a role in conceptual understanding, knowledge generation, and the communication of discovery and change. Undergraduate students are expected to interpret, use, and create visual representations so they can make their thinking explicit when engaging in discourse with the scientific community. Despite the importance of visualization in the biosciences, students often learn visualization skills in an ad hoc fashion without a clear framework. We used a mixed-methods sequential explanatory study design to explore and assess the pedagogical needs of undergraduate biology students (n = 53), instructors (n = 13), and teaching assistants (n = 8) in visual science communication education. Key themes were identified using inductive grounded theory methods. We found that extrinsic motivations, namely time, financial resources, and grading practices, contribute to a lack of guidance, support, and structure as well as ambiguous expectations and standards perceived by students and instructors. Biology and science visualization instructors cite visual communication assessments as a way of developing and evaluating students’ higher-order thinking skills in addition to their communication competencies. An output of this research, the development of a learning module, the Visual Science Communication Toolkit, is discussed along with design considerations for developing resources for visual science communication education. 
    more » « less
  2. ; ; (, Journal of Teacher Education)
    Studies in science and mathematics education have shown that teachers’ responsiveness to students’ ideas, feelings, and experiences is critical for promoting epistemic agency, disciplinary engagement, and equity. Such responsiveness is particularly important for students whose cultures, backgrounds, and funds of knowledge have been traditionally marginalized in science, technology, engineering, and mathematics (STEM) classrooms. Yet, what allows teachers to enact responsive teaching is less clear. We argue that epistemic empathy—the capacity for tuning into and appreciating learners’ intellectual and emotional experiences in constructing, communicating, and critiquing knowledge—is an essential driver of teacher responsiveness. In this work, we examine how epistemic empathy can serve to support teachers’ attention and responsiveness to students’ sensemaking experiences in the classroom and discuss emergent tensions that arise in this work. We end with implications for research and for teacher education to cultivate epistemic empathy as a resource for responsive teaching and a target for teacher learning. 
    more » « less
  3. ; ; ; (, Biology methods protocols)
    Understanding the relationship between science and society is an objective of science education and is included as a core competency in the AAAS Vision and Change guidelines for biology education. However, traditional undergraduate biology instruction emphasizes scientific practice and generally avoids potentially controversial issues at the intersection of biology and society. By including these topics in biology coursework, instructors can challenge damaging ideologies and systemic inequalities that have influenced science, such as biological essentialism and health disparities. Specifically, an ideologically aware curriculum highlights how ideologies and paradigms shape our biological knowledge base and the application of that knowledge. Ideologically aware lessons emphasize the relationship between science and society with an aim to create more transparent, scientifically accurate, and inclusive postsecondary biology classrooms. Here we expand upon our ideologically aware curriculum with a new activity that challenges undergraduate biology students to consider the impacts of healthcare disparities. This lesson allows instructors to directly address systemic inequalities and allows students to connect biomedical sciences to real-world issues. Implementing an ideologically aware curriculum enables students to challenge prevailing worldviews and better address societal problems that lead to exclusion and oppression. 
    more » « less
  4. ; ; ; (, Biology Methods and Protocols)
    Abstract Understanding the relationship between science and society is an objective of science education and is included as a core competency in the AAAS Vision and Change guidelines for biology education. However, traditional undergraduate biology instruction emphasizes scientific practice and generally avoids potentially controversial issues at the intersection of biology and society. By including these topics in biology coursework, instructors can challenge damaging ideologies and systemic inequalities that have influenced science, such as biological essentialism and health disparities. Specifically, an ideologically aware curriculum highlights how ideologies and paradigms shape our biological knowledge base and the application of that knowledge. Ideologically aware lessons emphasize the relationship between science and society with an aim to create more transparent, scientifically accurate, and inclusive postsecondary biology classrooms. Here we expand upon our ideologically aware curriculum with a new activity that challenges undergraduate biology students to consider the impacts of healthcare disparities. This lesson allows instructors to directly address systemic inequalities and allows students to connect biomedical sciences to real-world issues. Implementing an ideologically aware curriculum enables students to challenge prevailing worldviews and better address societal problems that lead to exclusion and oppression. 
    more » « less
  5. ; ; (, Journal for STEM Education Research)
    Li, Yeping (Ed.)
    Abstract The next generations of science, technology, engineering, and math (STEM) workers are being trained in college and university classrooms by a workforce of instructors who learn pedagogical practice largely on the job. While inclusive instructional practices and their impacts are increasingly well-studied, this training is difficult to instill within the professional development that most STEM professors receive before teaching their students. The Science Teaching Experience Program for Upcoming PhDs (STEP-UP) at the University of Washington was built to prepare future professors for inclusive excellence by guiding them through the literature in education research and providing them a space to practice active and inclusive teaching techniques. This study of STEP-UP uses a design-based approach to understand graduate trainee and undergraduate perceptions of the most salient aspects and outcomes of the program. Our study found that trainees used opportunities to practice inclusive teaching methods with a cohort of their peers, and crucially that these methods were evident in trainee-taught courses through multiple lines of evidence. STEP-UP-trained instructors used inclusive teaching strategies that helped students to feel socioemotionally supported. This study offers a model program that fosters inclusion and equity in undergraduate STEM classrooms through improving teaching professional development for graduate students. 
    more » « less
  • Citation Formats
  • MLA
  • APA
  • Chicago
  • BibTeX
  • Save / Share this Record
  • Send to Email