scholarly journals Classroom sound can be used to classify teaching practices in college science courses

2017 ◽  
Vol 114 (12) ◽  
pp. 3085-3090 ◽  
Author(s):  
Melinda T. Owens ◽  
Shannon B. Seidel ◽  
Mike Wong ◽  
Travis E. Bejines ◽  
Susanne Lietz ◽  
...  
Author(s):  
Xinnian Chen ◽  
John Redden ◽  
Aiyana Bobrownicki ◽  
Julia Gill ◽  
Mark Graham

Student-centered teaching practices such as active learning continue to gain momentum in college science education. Many instructors committed to these innovative practices transform their classroom beyond the standard lecture. Nevertheless, widespread implementation of these practices is limited because the learning benefits for students are often attained through increased instructional complexity to which many instructors cannot commit. When co-instructors are teaching the course, the level of commitment to building a student-centered classroom may be even more profound. For these reasons, new tools are needed to help instructors and co-instructors plan, organize, evaluate, and communicate their classroom innovations. Pathway modeling is a tool with potential to fill this gap. Unlike curriculum mapping -- which identifies academic content gaps, redundancies, and misalignments by examining a series of courses within a plan of study – course pathway modeling creates a visual map of a single course and reveals how teaching practices influence short-, mid-, and long-term student learning outcomes. This essay demonstrates how course pathway modeling can help co-instructors better represent the complexity of student-centered teaching practices. We include guides for creating course pathway models and discuss how this approach offers the potential to improve curricular design, course evaluation, student assessment, and communication between co-instructors.


2021 ◽  
Vol 20 (2) ◽  
pp. es5
Author(s):  
Xinnian Chen ◽  
John M. Redden ◽  
Aiyana Bobrownicki ◽  
Julia Gill ◽  
Mark J. Graham

This Essay demonstrates how course pathway modeling can help co-instructors better represent the complexity of student-centered teaching practices. It discusses how this approach can improve curricular design, course evaluation, student assessment, and communication between co-instructors.


1936 ◽  
Vol 13 (9) ◽  
pp. 437 ◽  
Author(s):  
Fred G. Anibal ◽  
Philip A. Leighton

2019 ◽  
Vol 18 (2) ◽  
pp. ar22 ◽  
Author(s):  
Meghan E. Bathgate ◽  
Oriana R. Aragón ◽  
Andrew J. Cavanagh ◽  
Jennifer Frederick ◽  
Mark J. Graham

Evidence-based teaching (EBT), such as active learning and formative assessment, benefits student learning but is not present in many college science classrooms. The choices faculty make about how to teach their science courses are influenced by their personal beliefs and motivations, as well as their departmental structures and institutional cultures. With data from 584 science, technology, engineering, and mathematics (STEM) faculty trained in EBT, we compare which of the following factors most relate to faculty’s use of EBT: 1) faculty’s personal motivations (e.g., teaching value, confidence, beliefs about intelligence); and 2) their experiences with their institutional teaching environments (e.g., departmental support, student enthusiasm). Faculty’s perceived supports in their teaching environments (e.g., having supportive colleagues, being able to access curricular resources) were by far most predictive of their use of EBT. Faculty’s personal motivations had little to no relationship when supports were included in these models. The effects were robust, even when controlling for faculty gender, minority status, and teaching experience. Much of the literature has focused on perceived barriers to EBT implementation (e.g., lack of time, constrained teaching space). The current data indicate that a focus on building supports for faculty may have the greatest impact on increasing the presence of EBT in college STEM courses.


Author(s):  
Mehmet Karakas

This qualitative study examined how college science faculty who teach introductory level undergraduate science courses including the fields of chemistry, biology, physics, and earth science, understand and define science and nature of science (NOS). Participants were seventeen science instructors from five different institutions in the northeastern U.S. and all of them were interviewed. Consistent with previous research, the findings revealed that the participants in this study held sophisticated and complex conceptions of NOS. In some instances their views were in line with the views promoted by science philosophers, and in other instances their views were more mixed and naive. Findings show that engaging in scientific inquiry is not enough to ensure informed conceptions of NOS.


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