Tag Archives: collaboration

Backward planning of lab course to enhance students’ critical thinking
Zhiyong Cheng, PhD
Food Science and Human Nutrition Department
The University of Florida

Development of critical thinking and problem-solving skills hallmarks effective teaching and learning [1-2]. Physiology serves as a fundamental subject for students in various majors, particularly for bioscience and pre-professional students [1-8]. Whether they plan on careers in science or healthcare, critical thinking and problem-solving skills will be keys to their success [1-8].

Backwards course design is increasingly employed in higher education. To effectively accomplish specific learning goals, instructions are to begin course development with setting learning objectives, then backwardly create assessment methods, and lastly design and deliver teaching and learning activities pertaining to the learning objectives and assessment methods. In terms of development of critical thinking and problem-solving skills, a lab course constitutes an excellent option to provide opportunities for instructors and students to explore innovative paths to their desired destinations, i.e., to accomplish specific learning goals.

In a traditional “cookbook” lab setting, detailed procedures are provided for the students to follow like cooking with a recipe. Students are usually told what to do step-by-step and what to expect at the end of the experiment. As such, finishing a procedure might become the expected goal of a lab course to the students who passively followed the “cookbook”, and the opportunity for developing critical thinking skills is limited. In a backwards design of a lab course; however, the instructor may engage the students in a series of active learning/critical thinking activities, including literature research, hypothesis formulation, study design, experimental planning, hands-on skill training, and project execution. Practically, the instructor may provide a well-defined context and questions to address. Students are asked to delve into the literature, map existing connections and identify missing links for their project to bridge. With the instructor’s guidance, students work together in groups on hypothesis development and study design. In this scenario, students’ focus is no longer on finishing a procedure but on a whole picture with intensive synthesis of information and critical thinking (i.e., projecting from generic context to literature search and evaluation, development of hypothesis and research strategy, and testing the hypothesis by doing experiments).

An example is this lab on the physiology of fasting-feeding transitions. The transition from fasting to feeding state is associated with increased blood glucose concentration. Students are informed of the potential contributors to elevated blood glucose, i.e., dietary carbohydrates, glycogen breakdown (glycogenolysis), and de novo glucose production (gluconeogenesis) in the liver. Based on the context information, students are asked to formulate a hypothesis on whether and how hepatic gluconeogenesis contributes to postprandial blood glucose levels. The hypothesis must be supported by evidence-based rationales and will be tested by experiments proposed by students with the instructor’s guidance. Development of the hypothesis and rationales as well as study design requires students to do intensive information extraction and processing, thereby building critical thinking and problem-solving skills. Students also need to make sound judgments and right decisions for their research plans to be feasible. For instance, most students tend to propose to employ the hyper-insulinemic-euglycemic clamp because the literature ranks it as a “gold standard” method to directly measure hepatic gluconeogenesis. However, the equipment is expensive and not readily accessible, and students have to find alternative approaches to address these questions. With the instructor’s guidance, students adjust their approaches and adopt more accessible techniques like qPCR (quantitative polymerase chain reaction) and Western blotting to analyze key gluconeogenic regulators or enzymes. Engaging students in the evaluation of research methods and selection helps them navigate the problem-solving procedure, increasing their motivation (or eagerness) and dedication to learning new techniques and testing their hypotheses. Whether their hypotheses are validated or disproved by the results they acquire in the end, they become skillful in thinking critically and problem solving in addition to hands-on experience in qPCR and Western blotting.

Evidently, students can benefit from backwards planning in different ways because it engages them in problem-based, inquiry-based, and collaborative learning — all targeted to build student problem solving skills [1-8]. For a typical lab course with pre-lab lectures; however, there is only 3-6 hours to plan activities. As such, time and resources could be the top challenges to implement backwards planning in a lab course. To address this, the following strategies will be of great value: (i) implementing a flipped classroom model to promote students’ pre- and after-class learning activities, (ii) delivering lectures in the lab setting (other than in a traditional classroom), where, with all the lab resources accessible, the instructor and students have more flexibility to plan activities, and (iii) offering “boot camp” sessions in the summer, when students have less pressure from other classes and more time to concentrate on the lab training of critical thinking and problem solving skills. However, I believe that this is a worthwhile investment for training and developing next-generation professionals and leaders.

References and further reading

[1] Abraham RR, Upadhya S, Torke S, Ramnarayan K. Clinically oriented physiology teaching: strategy for developing critical-thinking skills in undergraduate medical students. Adv Physiol Educ. 2004 Dec;28(1-4):102-4.

[2] Brahler CJ, Quitadamo IJ, Johnson EC. Student critical thinking is enhanced by developing exercise prescriptions using online learning modules. Adv Physiol Educ. 2002 Dec;26(1-4):210-21.

[3] McNeal AP, Mierson S. Teaching critical thinking skills in physiology. Am J Physiol. 1999 Dec;277(6 Pt 2):S268-9.

[4] Hayes MM, Chatterjee S, Schwartzstein RM. Critical Thinking in Critical Care: Five Strategies to Improve Teaching and Learning in the Intensive Care Unit. Ann Am Thorac Soc. 2017 Apr;14(4):569-575.

[5] Nguyen K, Ben Khallouq B, Schuster A, Beevers C, Dil N, Kay D, Kibble JD, Harris DM. Developing a tool for observing group critical thinking skills in first-year medical students: a pilot study using physiology-based, high-fidelity patient simulations. Adv Physiol Educ. 2017 Dec 1;41(4):604-611.

[6] Bruce RM. The control of ventilation during exercise: a lesson in critical thinking. Adv Physiol Educ. 2017 Dec 1;41(4):539-547.

[7] Greenwald RR, Quitadamo IJ. A Mind of Their Own: Using Inquiry-based Teaching to Build Critical Thinking Skills and Intellectual Engagement in an Undergraduate Neuroanatomy Course. J Undergrad Neurosci Educ. 2014 Mar 15;12(2):A100-6.

[8] Peters MW, Smith MF, Smith GW. Use of critical interactive thinking exercises in teaching reproductive physiology to undergraduate students. J Anim Sci. 2002 Mar;80(3):862-5.

Dr. Cheng received his PhD in Analytical Biochemistry from Peking University, after which he conducted postdoctoral research at the University of Michigan (Ann Arbor) and Harvard Medical School. Dr. Cheng is now an Assistant Professor of Nutritional Science at the University of Florida. He has taught several undergraduate- and graduate-level courses (lectures and lab) in human nutrition and metabolism (including metabolic physiology). As the principal investigator in a research lab studying metabolic diseases (obesity and type 2 diabetes), Dr. Cheng has been actively developing and implementing new pedagogical approaches to build students’ critical thinking and problem-solving skills.

Emerged Idea Led to a Unique Experience in Elephant’s City
Suzan A. Kamel-ElSayed, VMD, MVSc, PhD
Associate Professor, Department of Foundational Medical Studies
Oakland University

In May 2019, the physiology faculty at the Oakland University William Beaumont School of Medicine Department of Foundational Medical Studies received an email from Dr. Rajeshwari, a faculty member in JSS in a Medical College in India.

While Dr. Rajeshwari was visiting her daughter in Michigan, she requested a departmental visit to meet with the physiology faculty. Responding to her inquiry, I set up a meeting with her and my colleagues where Dr. Rajeshwari expressed her willingness to invite the three of us to present in the 6th Annual National Conference of the Association of Physiologists of India that was held from Sept. 11-14, 2019, in Mysuru, Karnataka, India.

The conference theme was: “Fathoming Physiology: An Insight.” My colleague then suggested a symposium titled “Physiology of Virtue,” where I could present the physiology of fasting since I fast every year during the month of Ramadan for my religion of Islam. To be honest, I was surprised and scared at my colleague’s suggestion. Although I fast every year due to the Quranic decree upon all believers, I was not very knowledgeable of what fasting does to one’s body. In addition, I faced the challenge of what I would present since I did not have any of my own research or data related to the field of fasting. Another concern was the cultural aspect in talking about Ramadan in India and how it would be received by the audience. However, willing to face these challenges, I agreed and admired my colleague’s suggestion and went forward in planning for the conference.

After Dr. Rajeshwari sent the formal invitation with the request for us to provide an abstract for the presentation, I started reading literature related to fasting in general. Reading several research articles and reviews, I was lost in where to begin and what to include. I began to ponder many questions: How will I present fasting as a virtue? Should I bring in religious connections? Will I be able to express spiritual aspects from a Muslim’s perspective? I decided that the aim of my presentation would be to describe how a healthy human body adapts to fasting, and the outcomes that practicing fasting has on an individual level and on the society as a whole. In addition, I found that focusing on the month of Ramadan and etiquettes of fasting required from Muslims had many physiological benefits and allowed me to have a real-world example in which fasting is present in the world.

Visiting India and engaging with physiologists from all over India was a really rich experience. The hospitality, generosity and accommodation that were provided was wonderful and much appreciated. The conference’s opening ceremony included a speech from the University Chancellor who is a religious Hindu Monk, along with Vice Chancellors, the organizing chair, and the secretary. In addition, a keynote speech on the physiological and clinical perspectives of stem cell research was presented by an Indian researcher in New Zealand. I was also able to attend the pre-conference workshops “Behavioral and Cognitive Assessment in Rodents” and “Exercise Physiology Testing in the Lab and Field” free of charge.

For my presentation, I included the definition, origin and types of fasting. In addition, I focused on the spiritual and physical changes that occur during Ramadan Intermittent Fasting (RIF). Under two different subtitles, I was able to summarize my findings. In the first subtitle, “Body Changes During RIF,” I listed all the changes that can happen when fasting during Ramadan. These changes include: activation of stress induced pathways, autophagy, metabolic and hormonal changes, energy consumption and body weight, changes in adipose tissue, changes in the fluid homeostasis and changes in cognitive function and circadian rhythm. In the second subtitle, “Spiritual Changes During RIF,” I presented some examples of spiritual changes and what a worshipper can do. These include development of character, compassion, adaptability, clarity of mind, healthy lifestyle and self-reflection. To conclude my presentation, I spoke of the impacts RIF has on the individual, society, and the global community.

In conclusion, not only was this the first time I visited India, but it was also the first time for me to present a talk about a topic that I did not do personal research on. Presenting in Mysuru not only gave me a chance to share my knowledge, but it allowed me to gain personal insight on historical aspects of the city. It was a unique and rich experience that allows me to not hesitate to accept similar opportunities. I encourage that we, as physiology educators, should approach presenting unfamiliar topics to broaden our horizons and enhance our critical thinking while updating ourselves on research topics in the field of physiology and its real-world application.  Physiology education is really valued globally!

Suzan Kamel-ElSayed, VMD, MVSc, PhD, received her bachelor of Veterinary Medicine and Masters of Veterinary Medical Sciences from Assiut University, Egypt. She earned her PhD from Biomedical Sciences Department at School of Medicine in Creighton University, USA. She considers herself a classroom veteran who has taught physiology for more than two decades. She has taught physiology to dental, dental hygiene, medical, nursing, pharmacy and veterinary students in multiple countries including Egypt, Libya and USA. Suzan’s research interests are in bone biology and medical education. She has published several peer reviewed manuscripts and online physiology chapters. Currently, she is an Associate Professor in Department of Foundational Medical Studies in Oakland University William Beaumont School of Medicine (OUWB) where she teaches physiology to medical students in organ system courses. Suzan is a co-director of the Cardiovascular Organ System for first year medical students. Suzan also is a volunteer physiology teacher in the summer programs, Future Physicians Summer Enrichment Program (FPSP) and Detroit Area Pre-College Engineering Program (DAPCEP) Medical Explorers that are offered for middle and high school students. She has completed a Medical Education Certificate (MEC) and Essential Skills in Medical Education (ESME) program through the Association for Medical Education in Europe (AMEE) and Team-Based Learning Collaborative (TBLC) Trainer- Consultant Certification. She is also a member in the OUWB Team-Based Learning (TBL) oversight team. Suzan is an active member in several professional organizations including the American Physiological Society (APS); Michigan Physiological Society (MPS); International Association of Medical Science Educators (IAMSE); Association of American Medical Colleges (AAMC); Team Based Learning Collaborative (TBLC); Egyptian Society of Physiological Sciences and its Application; Egyptian Society of Physiology and American Association of Bone and Mineral Research (ASBMR).

Collaboration is the Key to Success in Publishing Your Work

As an Assistant Professor, you are under a lot of pressure to teach new classes, perform service and of course publish. Often times you do not have a mentor to guide you and you are off on your own pathway to tenure. While I had many good ideas about some teaching research I wanted to perform with my students I needed help in executing a study and publishing my work. While the goal was clear, the plan and the execution were not. Where to start was the biggest and most difficult hurdle.

I assumed incorrectly that the best way to be successful in publishing was to do it on my own. After all, I would only be accountable to myself and need not worry about collaborators who might be hard to reach and would take a long time to complete their portion of a manuscript. I tried this path initially and it was incredibly difficult as I could only work on one project at a time. The turning point came when I attended an Experimental Biology (EB) meeting Teaching Section symposium several years ago; I vividly recalled an excellent presentation where the speaker showed us an elegant study of how he used active learning and student grades improved. This talk inspired me and I got excited to try this with my class by performing a similar study. The excitement abruptly ended when he stated the two sections of students he used for his study had 250 and 300 students respectively. My own classes are between 12-20 students, quite small in comparison and I was completely disheartened thinking it would take years of study before I surveyed that many students. After the talk, I went up to him to ask a question, there was someone in front of me that asked the question that I had planned to ask. She said “I have small classes and for me to do a study of significance would take years”. I chimed in “I am in the same situation”. He answered us both with one word “Collaborate”. I walked away disheartened as I did not know anyone that I could collaborate with on a study.

After some time to reflect that this course of action was what I needed I developed an active plan to execute at the next EB meeting. At the Claude Bernard Lecture, I introduced myself to Barb Goodman. This was an excellent choice, as Barb knows everyone and she was kind enough to introduce me to everyone who approached her. From there my confidence grew. The next smart decision I made was to sit in the front during the lecture and all future Teaching Section Symposia. Do not hide in the back as people sometimes come in late and this can be distracting. In the front of the room are the friendly people who are very happy to talk with you and share ideas.

The next step was to follow the program and attend the Teaching Section luncheon. At this event, a small group of people dedicated to teaching and student success sit and talk about the different classes they teach and share ideas about teaching challenges. The tables are small and round so you can meet everyone at your table. Another key event to attend at EB is the Teaching Section Business meeting and dinner. At the dinner, you get a chance to meet more people in a relaxed setting. Some of the attendees have attended the other events and this is a great way to practice your recall and talk with them on a first name basis.

The final step in meeting people with whom to collaborate is to participate in an Institute on Teaching and Learning (ITL). There have been three of these meetings so far (2014, 2016 & 2018) and the meeting actively encourages you to meet new people at each meal and form new collaborations. Through this meeting, I met many of my collaborators and successfully published abstracts and papers (listed below), received one grant, was a symposium speaker, and chaired a symposium. The meeting is energizing as the program is packed with new ideas and teaching strategies to try in your classroom. It is easy to ask questions and be an active participant in the discussions.  Thus, taking advantage of a number of opportunities for physiology educators through the American Physiological Society can be just the push you need to get going on a successful promotion and tenure process.  Join the APS and its Teaching Section to keep up-to-date on what is going on in physiology education.

 

References

  1. Aprigia Monteferrante G,  Mariana Cruz M, Mogadouro G, de Oliveira Fantini V,  Oliveira Castro P, Halpin PA, and Lellis-Santos C (2018). Cardiac rhythm dance protocol: a smartphone-assisted hands-on activity to introduce concepts of cardiovascular physiology and scientific methodology. Advances in Physiology Education, 42: 516-520, doi:10.1152/advan.00028.2017.
  2. Blatch, SA, Cliff W., Beason-Abmayr, B. and Halpin PA. (2017).The Artificial Animal Project: A Tool for Helping Students Integrate Body Systems. Advances in Physiology Education. 41: 239-243 DOI: 10.1152/advan.00159.2016
  3. Gopalan C., Halpin PA and Johnson KMS (2018). Benefits and Logistics of Non-Presenting  Undergraduate Students Attending a Professional Scientific Meeting. Advances in Physiology Education. 42: 68-74. DOI.org/10.1152/advan.00091.2017
  4. Halpin PA, Golden L, Zane Hagins K, Waller S, and Chaya Gopalan C. (2018). SYMPOSIUM REPORT ON “Examining the Changing Landscape of Course Delivery and Student Learning;” Experimental Biology 2017. Advances in Physiology Education, 42: 610–614. doi:10.1152/advan.00096.2018.
  5. Lellis-Santos, C and Halpin PA (2018).”Workshop Report: “Using Social Media and Smartphone Applications in Practical Lessons to Enhance Student Learning” in Búzios, Brazil (Aug. 6-8, 2017). Advances in Physiology Education, 42: 340–342. https://doi.org/10.1152/advan.00011.2018.
Patricia A. Halpin is an Associate Professor in the Life Sciences Department at the University of New Hampshire at Manchester (UNHM). Patricia received her MS and Ph.D. in Physiology at the University of Connecticut. She completed a postdoctoral fellowship at Dartmouth Medical School. After completion of her postdoc she started a family and taught as an adjunct at several NH colleges. She then became a Lecturer at UNHM before becoming an Assistant Professor. She teaches Principles of Biology, Endocrinology, Cell Biology, Animal Physiology, Global Science Explorations and Senior Seminar to undergraduates. She has been a member of APS since 1994 and is currently on the APS Education committee and is active in the Teaching Section. She has participated in Physiology Understanding (PhUn) week at the elementary school level in the US and Australia. She has presented her work on PhUn week, Using Twitter for Science Discussions, and Embedding Professional Skills into Science curriculum at the Experimental Biology meeting and the APS Institute on Teaching and Learning.
Closing the Circle: How being faculty at a liberal arts college made me a better medical physiologist

Happy Halloween!

As I look back upon my career as a faculty member at both a liberal arts college and several medical schools, I’ve come to the realization that this holiday is not a bad analogy for some things we all are familiar with—surprises both good and bad, sometimes a little scary… and at the journey’s end, a reflection of our perceived world and ourselves.pumpkinghosts

Example:  20 years ago last month, I started my first faculty position as an Assistant Professor of Biology at a small liberal arts college. Walking into that first classroom on the first day of classes was pretty frightening, because I did not know it all. As a graduate of a medical-level physiology Ph.D. program I had a solid background in the teaching of physiology, having taught it in lecture and/or lab to students in dental hygiene, nursing, dental, medical, and graduate programs. But I’d never taken gross anatomy or histology. So in that first Anatomy and Physiology class I was going to have to be an “expert” in both topics to students who had no reason to think I wasn’t.  The horror of it all to me.

I spent a good deal of my first semester staying one week ahead of the students in those weak areas.  In the next semester, it was Microbiology in which I was deficient. I had only taken one undergraduate microbiology course 14 years before, and unlike anatomy or histology there had been little cross-learning of this topic with physiology in graduate school, so I was on my own. I had help of course, including experienced faculty and excellent teaching resources that came with the textbooks. But it was a long way out of my comfort zone.  In fact, it was downright frightening!  As the years went by, I put on many other hats, some of which were better fits than others. I taught general biology, biochemistry, genetics, cell biology, and personal health, among other courses offered to a dozen biology majors and a few hundred non-majors.  From being trained as a Physiologist, I had become a Biologist.

So what were the lessons I learned at this liberal arts college? The first was this:  That it is possible to teach what many medical schools of the day would have been considered an insane teaching load of 16-20 contact hours with students per week instead of 16-20 contact hours per year. Second, it is not necessary to be THE expert on a topic in order to teach it well. Third, to achieve this adequacy required being very flexible and willing to learn new things. For example, while I couldn’t actually replace an ecologist in the planning and leading of field trips, I could teach enough of the basic principles to satisfy the needs of students in a Biology II class. This involved working with the ecologists on the staff, even following them into the field to see and experience how they looked at the biological sciences. The final lesson I learned, though I learned it late, was that there are always opportunities to be a scientist. That not all research takes place in the laboratory or the clinic. That being a teacher and being a scientist need not be an either-or career choice. That the principles of science could be applied to the science and art of teaching itself.

After several years at this liberal arts college, I made the life-changing decision to start medical school on a part-time-student-part-time-teacher basis, at a Caribbean location.  While I never did get an M.D., my faculty experience at this medical school led to other full time faculty positions at both allopathic and osteopathic medical schools. And out there, working up from smaller medical schools to larger ones, I learned still more.  For two years before I joined my current institution, I taught medical physiology from 8-10 a.m. five days a week, assisted in the anatomy lab another four hours, and lectured in a premedical prep course for another 8-10 hours per semester. Completely unlike anything I had done before, I had to teach a medical physiology course three times per year as the sole instructor.  By necessity I relearned physiology as an entire discipline to a level close to what I’d known as I was finishing up my first year as a graduate student. I became able to teach any physiology topic at the medical level with little to no advance prep, again adequately but not necessarily at the research specialist level. The flip side was that as the only physiologist, there was essentially no time off for anything else including travel, conferences, or research.

From this experience I learned that it is possible to be a sole medical physiologist with the same teaching load as that taught at the undergraduate level. If necessary, one can have at least 14 contact hours per week to medical students and an additional 1-2 hours over several weeks each semester to premedical students and still teach well. I firmly believe that had I not had seven years of teaching experience as a multidisciplinary biologist at the undergraduate level, I would have found it much harder be able to teach all aspects of physiology at the medical level at such an intense pace. Just as I had had to do at the liberal arts college, I worked 16-18 hour days that first semester to stay two weeks ahead of the students. Each semester after that I worked 12 hour days to try to keep up with the demand of keeping lecture content and other materials updated, write 75 new exam items every three weeks, and perform all the other duties required of an associate professor at a tiny school. Along the way I finally overcame the self-concept built in from graduate training that I was an “endocrine physiologist” or a “reproductive physiologist” or a “gastrointestinal physiologist” or any other specialist physiologist based on the research I was doing. And in so doing I did acquire a specialty after all… I became a specialist at being a “generalist” whole-body physiologist, as well as a specialist in physiology education!

It was these specialties, honed from the lessons in adaptability first learned at the liberal arts college, which I brought to both my current medical school and to an osteopathic medical college in the United States. But my lessons weren’t done. Both of these medical programs use an integrated curriculum, which was far different from anything I had experienced before.  Prior to helping design the integrated curricula of both schools, I had never had significant teaching-level interactions with either histologists, biochemists, pathologists, or clinical medicine faculty despite our having been colleagues for years.  Now not only was I going to interact with them, I was going to have to be able to discuss pathology with medical students with enough competency to help explain how the physiology dovetailed into it and both of them into clinical conditions/presentations.  I was going to have to do the same thing with microbiology, anatomy, histology, biochemistry, and pharmacology to appreciate the whole-system approach to medical education.

So once again, I dove into the new challenges of adapting to this integrated organ-system driven curriculum.  For the first time, I came to understand across several organ systems how the clinical medicine was driven by pathology and that driven by the four foundations of gross anatomy, microanatomy, physiology, and biochemistry. But the focus of any integrative approach would always be first and foremost the clinical aspect of these four foundations in disorders and compensations because that’s what our students were ultimately trying to master. Bringing the balance in teaching the appropriate level of physiology in such a systems-based curriculum while ultimately keeping the clinical focus was a challenge I had never before faced.

And this is what brings me back almost full circle to my days as a young assistant professor at a tiny liberal arts school.  Instead of having teaching resources located in a set of supplements to a textbook, I have access to several specialists in each discipline, all of whom are focused on the same tasks for their respective fields.  And yet, in a curious sort of way I have become a Biologist again, albeit a medical biologist.

To illustrate this, I’ll give a short example.  At my current institution we have a curriculum in which organ systems are split into a first-or-second semester component and a third-or-fourth semester component.  In one lecture I deliver in second semester Endocrine Systems, I deliver a significant portion of the basic science content for the hypothalamus and pituitary gland.  In the initial preparation for this lecture, I incorporate materials prepared by our module’s microanatomist (a neuroscientist by training) and from our module’s pathologist which mentions those pathologies most appropriate for students at this level to learn.  When I then stand before the class as the lecture presenter, I deliver not only physiology content but this other content as well.  As I do so, I am reminded of those times so many years ago now when I was just as far out of my field, delivering the details of dense connective tissue to biology majors, the presentation of viral gastrointestinal disorders to nursing students, or the principles of public health to non-majors.

The story is the same really.  We are all alike now, the physiologists of the undergraduate and the medical teaching world.  We have much to share with one another, and much to learn from one another.  And you know, that’s not really a scary thought at all.  Happy Halloween anyway.

 

wright
 

Bruce Wright is a professor in the Department of Physiology at Ross University School of Medicine in the Commonwealth of Dominica, West Indies.  Bruce received his doctorate in Physiology from Louisiana State University Health Sciences Center in New Orleans.  Following two postdoctoral fellowships he taught at Thomas University in Thomasville, GA.  He also taught at the Medical College of the Americas in St. Kitts and Nevis, West Indies, the University of Sint Eustatius School of Medicine in the Netherlands Antilles, West Indies, and the Alabama College of Osteopathic Medicine in Dothan, AL.  Bruce has been a regular member of the APS for 22 years, most of those with the Teaching section as his primary affiliation. Bruce has served as Treasurer/Events and Awards Coordinator of the APS Teaching of Physiology Section since 2015.  He has presented work at EB and the APS ITL on APS learning objectives, novel teaching strategies and item objective formats, integrated curriculum design and implementation, and challenges in preserving physiology content in integrated curricula.

 

 

Education Research: A Beginner’s Journey

Why does it seem so hard to do education research? I have never been afraid to take on something new – what is stopping me?  These thoughts were burning in my mind as I sat around in a circle with educators at the 2016 Experimental Biology (EB) meeting. During this session, we discussed how we move education research forward and form productive collaborations. Here are my takeaways from the meeting:

EDUCATION RESOURCES

Here are some tips to get started on education research that I learned from the “experts”.

1. Attend poster sessions on teaching at national conferences such as Experimental Biology.

2. Get familiar with published education research and design.

3. Attend the 2016 APS Institute of Teaching and Learning

4. Reach out to seasoned education researchers who share similar interests in teaching methodologies.

6. Get engaged in an education research network such as APS Teaching Section – Active learning Group

“Doubt is not below knowledge, but above it.”
– Alain Rene Le Sage

As seasoned research experts discussed education research in what sounded like a foreign tongue, I began to doubt my ability to become an education researcher. However, the group quickly learned that we had a vast array of experience in the room from the inspiring new education researchers to the seasoned experts. Thus, the sages in the room shared some valuable resources and tips for those of us just starting out (see side bar).

“We are all in a gutter, but some of us are looking at the stars”
– Oscar Wilde

You may already have all the data you need to actually publish a research study. In my mind, education research had to involve an intervention with a placebo and control group. However, it can also be approached like a retrospective chart review. To proceed, you should consult with your local Institutional Review Board to see if you will need informed consent to utilize existing data or if it qualifies for exemption.

“Setting out is one thing: you also must know where you are going and what you can do when you get there.”
– Madeleine Sophie Barat

It became clear at our meeting that the way forward was collaboration and mentorship. A powerful approach that emerged is taking a research idea and implementing it across a number of institutions in a collaborative research project. By doing this, we would have a network of individuals to discuss optimal research design and implementation strategies and increase statistical power for the study.

At the end of my week at EB, I reflected on my experiences and realized that education researchers are a unique group – in that, we are all passionate about the development of others. Collaborating with individuals who seek the best of each other will lead to great friendships and good research.

If you are interested in joining the APS Teaching Section “Active Learning Group”, please contact Lynn Cialdella-Kam.

Resources:

Suggested Readings:

Alexander, Patricia A, Diane L Schallert, and Victoria C Hare. 1991. “Coming to terms: How researchers in learning and literacy talk about knowledge.”  Review of educational research 61 (3):315-343.

Matyas, M. L., and D. U. Silverthorn. 2015. “Harnessing the power of an online teaching community: connect, share, and collaborate.”  Adv Physiol Educ 39 (4):272-7. doi: 10.1152/advan.00093.2015.

McMillan, James H, and Sally Schumacher. 2014. Research in education: Evidence-based inquiry: Pearson Higher Ed.

Postlethwaite, T Neville. 2005. “Educational research: some basic concepts and terminology.”  Quantitative research methods in educational planning:1-5.

Savenye, Wilhelmina C, and Rhonda S Robinson. “Qualitative research issues and methods: An introduction for educational technologists.”

Schunk, Dale H, Judith R Meece, and Paul R Pintrich. 2012. Motivation in education: Theory, research, and applications: Pearson Higher Ed.

PECOP Lynn Cialdella Photo

 

Lynn Cialdella Kam joined CWRU as an Assistant Professor in Nutrition in 2013. At CWRU, she is engaged in undergraduate and graduate teaching, advising, and research. Her research has focused on health complications associated with energy imbalances (i.e. obesity, disordered eating, and intense exercise training). Specifically, she is in interested in understanding how alterations in dietary intake (i.e., amount, timing, and frequency of intake) and exercise training (i.e., intensity and duration) can affect the health consequences of energy imbalance such as inflammation, oxidative stress, insulin resistance, alterations in macronutrient metabolism, and menstrual dysfunction. She received her PhD in Nutrition from Oregon State University, her Masters in Exercise Physiology from The University of Texas at Austin, and her Masters in Business Administration from The University of Chicago Booth School of Business. She completed her postdoctoral research in sports nutrition at Appalachian State University and is a licensed and registered dietitian nutritionist (RDN).