Two Minute Training in Class Significantly Increases the Use of Professional Formatting in Student to Faculty Email Correspondence

Many university faculty value email as an important tool for communicating with colleagues, but express frustration with a high incidence of unprofessional email correspondence from students. The goals of this study were to document the frequency of specific formatting mistakes that contribute to faculty’s unfavorable perception of student emails and to determine if training could reduce these errors. We analyzed emails from students to three instructors of different rank and gender co-teaching two sections of a large introductory biology class: one section received two minutes of basic email etiquette training, the second section served as the control. We report a significant increase in overall professional quality of student emails in the trained class due to more frequent use of proper salutations, appropriate capitalization, and a class-specific subject line. These data suggest that most students do not send intentionally disrespectful messages and respond to guidance in constructing professionally formatted emails

Learn before Lecture: A Strategy That Improves Learning Outcomes in a Large Introductory Biology Class

Actively engaging students in lecture has been shown to increase learning gains. To create time for active learning without displacing content we used two strategies for introducing material before class in a large introductory biology course. Four to five slides from 2007/8 were removed from each of three lectures in 2009 and the information introduced in preclass worksheets or narrated PowerPoint videos. In class, time created by shifting lecture material to learn before lecture (LBL) assignments was used to engage students in application of their new knowledge. Learning was evaluated by comparing student performance in 2009 versus 2007/8 on LBL-related question pairs, matched by level and format. The percentage of students who correctly answered five of six LBL-related exam questions was significantly higher (p < 0.001) in 2009 versus 2007/8. The mean increase in performance was 21% across the six LBL-related questions compared with <3% on all non-LBL exam questions. The worksheet and video LBL formats were equally effective based on a cross-over experimental design. These results demonstrate that LBLs combined with interactive exercises can be implemented incrementally and result in significant increases in learning gains in large introductory biology classes

International educators’ attitudes, experiences, and recommendations after an abrupt transition to remote physiology laboratories

Peer reviewedPostprin

The Case for Coordinating Efforts to Establish Program Guidelines and Strengthen Physiology Undergraduate Degree Programs

Undergraduate degree programs named “Physiology” have existed for over 50 yr. The number of programs and enrolled students have been growing since ~2005 (5, 9). There are many thousands of students currently enrolled in physiology pro- grams across the United States and indeed across the world. Despite the long history and current popularity of the physiol- ogy major, there is no coordinated plan articulated for the design, administration, or assessment of degree programs in physiology at the undergraduate level. Although several professional societies have invested in under- graduate physiology education in various ways, none has under- taken the task of developing programmatic guidelines at the level of a degree program. This paper outlines the work being done by multiple stakeholders in physiology undergraduate education in the hopes of building a collaboration among interested parties. A large-scale collaboration could result in establishing consensus national programmatic guidelines. Through coordinated efforts, we ensure that entities with common educational interests are working together, and we collectively strengthen our programs to help our students succeed. The goals of this paper are to: 1) draw attention to the lack of national, program-level guidelines for physiology under- graduate degree programs; 2) share ongoing efforts by stake- holders in physiology undergraduate education; 3) suggest a mechanism for coordination among stakeholders; and 4) dis- cuss challenges and considerations for development of pro- grammatic guidelines for physiology programs

Garage demos: using physical models to illustrate dynamic aspects of microscopic biological processes.

Colorful PowerPoint presentations with detailed drawings, micrographs, and short animations have become the standard format for illustrating the fundamental features of cell biology in large introductory classes. In this essay, we describe a low-tech tool that can be included in a standard lecture to help students visualize, understand, and remember the dynamic aspects of microscopic cell biological processes. This approach involves use of common objects, including pipe insulation and a garden hose, to illustrate basic processes such as protein folding and cloning, hence the appellation "garage demos." The demonstrations are short, minimizing displacement of course content, easy to make, and provide an avenue for increasing student-faculty interaction in a large lecture hall. Student feedback over the past 4 years has been overwhelmingly positive. In an anonymous postclass survey in 2007, 90% of the respondents rated garage demos as having been very or somewhat helpful for understanding course concepts. Direct measurements of learning gains on specific concepts illustrated by garage demos are the focus of an ongoing study

Garage demos: using physical models to illustrate dynamic aspects of microscopic biological processes.

Colorful PowerPoint presentations with detailed drawings, micrographs, and short animations have become the standard format for illustrating the fundamental features of cell biology in large introductory classes. In this essay, we describe a low-tech tool that can be included in a standard lecture to help students visualize, understand, and remember the dynamic aspects of microscopic cell biological processes. This approach involves use of common objects, including pipe insulation and a garden hose, to illustrate basic processes such as protein folding and cloning, hence the appellation "garage demos." The demonstrations are short, minimizing displacement of course content, easy to make, and provide an avenue for increasing student-faculty interaction in a large lecture hall. Student feedback over the past 4 years has been overwhelmingly positive. In an anonymous postclass survey in 2007, 90% of the respondents rated garage demos as having been very or somewhat helpful for understanding course concepts. Direct measurements of learning gains on specific concepts illustrated by garage demos are the focus of an ongoing study

Two Minute Training in Class Significantly Increases the Use of Professional Formatting in Student to Faculty Email Correspondence

Many university faculty value email as an important tool for communicating with colleagues, but express frustration with a high incidence of unprofessional email correspondence from students. The goals of this study were to document the frequency of specific formatting mistakes that contribute to faculty’s unfavorable perception of student emails and to determine if training could reduce these errors. We analyzed emails from students to three instructors of different rank and gender co-teaching two sections of a large introductory biology class: one section received two minutes of basic email etiquette training, the second section served as the control. We report a significant increase in overall professional quality of student emails in the trained class due to more frequent use of proper salutations, appropriate capitalization, and a class-specific subject line. These data suggest that most students do not send intentionally disrespectful messages and respond to guidance in constructing professionally formatted emails

Learn before lecture: A strategy that improves learning outcomes in a large introductory biology class.

Actively engaging students in lecture has been shown to increase learning gains. To create time for active learning without displacing content we used two strategies for introducing material before class in a large introductory biology course. Four to five slides from 2007/8 were removed from each of three lectures in 2009 and the information introduced in preclass worksheets or narrated PowerPoint videos. In class, time created by shifting lecture material to learn before lecture (LBL) assignments was used to engage students in application of their new knowledge. Learning was evaluated by comparing student performance in 2009 versus 2007/8 on LBL-related question pairs, matched by level and format. The percentage of students who correctly answered five of six LBL-related exam questions was significantly higher (p &lt; 0.001) in 2009 versus 2007/8. The mean increase in performance was 21% across the six LBL-related questions compared with &lt;3% on all non-LBL exam questions. The worksheet and video LBL formats were equally effective based on a cross-over experimental design. These results demonstrate that LBLs combined with interactive exercises can be implemented incrementally and result in significant increases in learning gains in large introductory biology classes