Flipping Your Class

At the 2nd Annual Johns Hopkins University Symposium on Excellence in Teaching and Learning in the Sciences, we heard a lot about flipping the classroom.

From lecture hall to interactive learning - two images with arrow connecting.

The term, flipped classroom, might bring to mind an anti-gravity experiment, but it actually refers to a different way of thinking about teaching and learning. In a traditional pedagogical model, a faculty member is a “sage on the stage,” lecturing to students (who are frantically taking notes in an effort to capture all of the professor’s pearls of wisdom).  Assignments – readings, problem sets, projects, papers – are all done outside of class, often with little or no direct guidance from faculty.

In the flipped classroom (also called the inverted classroom), the process is turned around. Instead of doing problem-based homework outside of class and coming to class to hear the professor lecture, the student watches a version of the lecture content online, and comes to class to work on problems in an interactive, collaborative setting. The faculty member becomes a “guide on the side” or a coach, perhaps injecting a mini-lecture when needed to help students struggling with a common problem.  The focus shifts from teaching to learning.

This is not an “either/or” or an “instead of” situation. Students view the online content at their convenience, do the assigned readings, AND come to class.  They must come to class because that’s where the active learning will happen, where they are going to work on problems individually or in groups, and perhaps most importantly, where they will develop skills that will enable them to be life-long learners, not only in the discipline that you teach, but in any subject. Some professors choose to insert quick (graded) quizzes at the start of the flipped class as a further inducement to attendance.

Two high school teachers, Aaron Sams and Jonathan Bergmann, are credited with developing the model for the flipped classroom in 2007. Sams was awarded the 2009 Presidential Award for Excellence in Math and Science Teaching, and he and his colleague have written extensively about this model and its evolution. See the blog post The Flipped Class: Shedding Light on the Confusion, Critique, and Hype; an article available as a PDF for JHU affiliates, Before You Flip, Consider This; and their book, Flip Your Classroom: Reach Every Student in Every Class Every Day.

One quote from the blog post describes the classroom scene and is particularly compelling:

As we roam around the class, we notice the students developing their own collaborative groups.  Students are helping each other learn instead of relying on the teacher as the sole disseminator of knowledge.

One of the greatest benefits of flipping is that overall interaction increases: teacher to student and student to student.  Since the role of the teacher has changed from presenter of content to learning coach, we spend our time talking to kids.  We are answering questions, working with small groups, and guiding the learning of each student individually.

When students are working on an assignment and we notice a group of students who are struggling with the same thing, we automatically organize the students into a tutorial group.  We often conduct mini-lectures with groups of students who are struggling with the same content. The beauty of these mini-lectures is we are delivering “just in time” instruction when the students are ready for learning.

Changing the focus in the classroom from the faculty teaching to the students actively learning may prove to be challenging to the instructor used to actively teaching. Terry Doyle, a professor and author of two books on learner centered teaching, tells us, “It’s the one who does the work who does the learning.” [Helping Students Learn in a Learner Center Environment: A Guide to Teaching in Higher Education, Stylus, 2008, p. 25].

Robert Talbert, who teaches mathematics at Grand Valley State University in Michigan and writes for The Chronicle of Higher Education, has posted about his experiences with flipping his classroom on his blog, Casting Out Nines. His posts speak honestly about his experiences including receiving pushback from some students. One of his recent pieces, We Need to Produce Learners, Not Just Students, looks at the concept of producing life-long learners mentioned above.

On the practical side, there are DIY guides. Julie Schell, a post-doc working with Eric Mazur – the Harvard University physics professor who developed Peer Instruction, a research-based, interactive teaching method – has created a Quick Start Guide to Flipping your Classroom with Peer Instruction. Closer to home, JHU Associate Professor of Materials Science and Engineering, Michael Falk, has been flipping his classroom since 2010. In an article for the Innovative Instructor Pedagogy Forum entitled Lectures on Demand, he outlines the technology solutions he has used to produce the video content.

Faculty writing about the applied components of the flipped classroom agree that using shorter, topic-focused videos for the out of class content is more effective than video-taping their traditional 50 minute (or longer) lectures. As was discussed in our post on micro-lectures, students’ attention begins to wander after 10 minutes. Professor Falk notes in his article that creating the online content requires thought and up-front time, but pays off later, as this content can be reused in subsequent offerings of the course. Faculty can use video-recordings of themselves explaining key concepts or problems, borrow from Khan Academy or similar materials available on YouTube educational channels, offer animations or other didactic resources.

Faculty who have made the flip are enthusiastic about the benefits for their students. After the discussions at the GSI Symposium, we hope to see more flipping at JHU.

Macie Hall, Senior Instructional Designer
Center for Educational Resources


Image Source: Microsoft clip art edited by Macie Hall

Microlectures

You may have heard some buzz recently about microlectures or mini-lectures. Here’s The Innovative Instructor’s scoop on the topic.

Microlectures are just what they sound like – short, focused discourses on specific topics. If you’ve ever watched a TED talk, you’ve experienced a microlecture. The classic TED talk is 18 minutes or shorter, and the speaker concentrates on developing a single big idea.  Another example of the microlecture can be found in the Khan Academy model. The Khan Academy website boasts a library of videos covering “…K-12 math, science topics such as biology, chemistry, and physics, and …humanities with playlists on finance and history. Each video is a digestible chunk, approximately 10 minutes long, and especially purposed for viewing on the computer.”

Students in class room raising hands.

What does this have to do with you and your teaching approach? Research has shown that a student’s attention span during lectures decreases after fifteen minutes [Wankat, P., The Effective Efficient Professor: Teaching, Scholarship and Service, Allyn and Bacon: Boston, MA, 2002]. Once you lecture past that time, students retain significantly less information. [Hartley, J., and Davies, I., “Note Taking: A Critical Review,” Programmed Learning and Educational Technology, 1978, Vol. 15, pp. 207–224.] Hartley and Davies suggested that breaking up a lecture into smaller segments could help keep students engaged.

One way to integrate microlectures into your face-to-face teaching is to intersperse short periods of lecturing  with active learning activities. These exercises will reinforce the material you’ve just presented.

Even if you have a large enrollment for your course, it is possible to implement active learning strategies. A quick method is “Pair-Share.” After presenting in a microlecture format, have your students pair off and discuss a question you pose to test their comprehension of the material just covered. Eric Mazur, Professor of Physics and Applied Physics, School of Engineering and Applied Sciences, Harvard University, has written and presented (see his talk, Confessions of a Converted Lecturer, from the JHU Gateway Sciences Initiative 2012 Symposium on Teaching Excellence in the Sciences) on using active learning, and pair-share exercises, in large courses.

The Educause Learning Initiative recently published a short tip sheet on microlectures that are recorded for students to use outside of the classroom: 7 Things You Should Know about Microlectures.  This two page PDF document addresses recording microlectures for hybrid or “flipped” class settings (where the recorded lecture is viewed by students outside of regular class time), but contains advice that will be useful in fully face-to-face learning environments as well.

If you are interested in learning more about active learning strategies and how you can integrate these into your teaching, perhaps in conjunction with microlectures, you can get a jump start by reading the article, Active Learning: An Introduction [Felder, R.M. and Brent, R., 2009, ASQ Higher Education Brief, 2(4), 1-5].  This is an introduction to active learning that includes frequently asked questions about what you can do and what you can get your students to do.

Macie Hall, Senior Instructional Designer
Center for Educational Resources


Image Source: Microsoft Clip Art

Select Web Resources on Active Learning Strategies in the Sciences

Students in classroomSTEM (Science, Technology, Engineering, Mathematics) education is very much on the radar screen here at Johns Hopkins. Last year our Provost launched the Gateway Sciences Initiative (GSI) as a “…multi-dimensional program to improve and enrich learning of gateway sciences at Johns Hopkins University for undergraduate and graduate students.” Active learning strategies have been a big part of the ensuing conversation. Following are some web resources that will be useful for faculty interested in finding out more about how to incorporate active learning activities into their teaching.

Team-Based Learning Collaborative
http://www.teambasedlearning.org

The Team-Based Learning Collaborative (TBLC) is a consortium of university educators dedicated to supporting faculty from a variety of disciplines who wish to implement team-based learning. The website has specific guidelines, how-to videos, and step by step instructions created by faculty for faculty.

Yale Center for Scientific Teaching
http://www.yale.edu/cst/

The goal of the Center for Scientific Teaching is to enhance undergraduate biology education by training a new generation of “scientific teachers,” namely faculty and instructors who bring the rigor and spirit of science research to teaching. The website has instructional modules developed by faculty who teach undergraduate and graduate science courses and a bi bibliography.

MIT Technology Enhanced Active Learning (TEAL)
 http://web.mit.edu/edtech/casestudies/teal.html

TEAL is an initiative to transform university education from a string of passive lectures in introductory courses into an intense, active, personalized and highly collaborative adventure. The central concepts are flexible modes of learning that better stimulate discovery and improve understanding of conceptual material. The website provides an overview to the activities and spaces in use at MIT and is useful as a model for active learning initiatives.

Stanford Center for Innovations in Learning
http://wallenberg.stanford.edu/

Wallenberg Hall is Stanford University’s center for research in classroom teaching and learning. This site provides a model for active learning with descriptions of the facility, case studies of how the rooms are used, and case studies and interviews with faculty talking about their classroom experiences. Of particular interest are the papers, presentations, and information about on-going research in teaching and learning found here: http://wallenberg.stanford.edu/teaching/findings.html

NC State University Student-Centered Active Learning Environment for Undergraduate Programs (SCALE-UP)
http://www.ncsu.edu/PER/scaleup.html

The primary goal of the Student-Centered Active Learning Environment for Undergraduate Programs (SCALE-UP) Project is to establish highly collaborative, hands-on, computer-rich, interactive learning environments for large-enrollment courses. The website showcases the SCALE-UP spaces at North Carolina State University and other institutions that have adopted SCALE-UP.  Also available through the website: links to physics learning activities, research in physics education, software products to enrich visualization in physics classes, assessment resources, and student learning toolkits.

Minnesota – Active Learning Classrooms
http://www1.umn.edu/ohr/teachlearn/alc/index.html

The University of Minnesota has invested in a new Active Learning Classrooms building and has developed these web resource pages to outline the considerations and challenges in adopting active learning methods, and to provide faculty with specific strategies and activities to promote successful active learning course design.

University of Washington Physics Education Group
Tutorials in Introductory Physics

http://www.phys.washington.edu/groups/peg/curric.html

Two major curriculum developments are the subject of publications by the Physics Education Group at UW.  Physics by Inquiry is a set of lab-based modules designed for K-12 teachers and for college students whose science background is weak. Tutorials in Introductory Physics is intended for use by small groups of students working collaboratively as a supplementary curriculum to aid in the development and application of key concepts in calculus or algebra-based physics.

Carl Wieman Science Education Initiative at the University of British Columbia (CWSEI)
http://www.cwsei.ubc.ca/index.html

The goal of the CWSEI is to achieve highly effective, evidence-based science education for all post-secondary students by applying the latest advances in pedagogical and organizational excellence. This website has a number of useful resources applicable for STEM teaching. Of particular interest are:

Clicker Resources, which include an instructor’s guide: http://www.cwsei.ubc.ca/resources/clickers.htm and videos that show the benefits of, and offer practical tips on, using clickers in the classroom: http://www.cwsei.ubc.ca/resources/SEI_video.html

Educause 
http://www.educause.edu/EDUCAUSE+Review/EDUCAUSEReviewMagazineVolume40/LearningSpaceDesigninAction/157996

EDUCAUSE Review Magazine, Volume 40, Number 4, July/August 2005 has several articles on learning space design theories, principles, and practices, including details on active learning initiatives and activity-based science courses at MIT, NC State University, University of Washington, and Dickinson College, among others.

Association of American Universities (AAU) Undergraduate STEM Education Initiative
http://www.aau.edu/policy/article.aspx?id=12588

The Association of American Universities (AAU) announced on September 14, 2011, that it would undertake a five-year initiative to improve the quality of undergraduate teaching and learning in science, technology, engineering, and mathematics (STEM) fields at its member institutions. The goals of the initiative are to help institutions assess the quality of STEM teaching on their campuses, share best practices, and create incentives for their departments and faculty members to adopt the most effective teaching methods in their classes.

Macie Hall, Senior Instructional Designer
Center for Educational Resources


Image source: Microsoft Clip Art

What’s New with Clickers?

There’s a new clicker on the quad this fall.  Clicker is the popular term for the devices used for in-class voting systems. The Homewood campus is now using the i>Clicker Classroom Response System; students can use the same clicker device in multiple courses. One of the benefits of the i>Clicker system is that it is integrated with the Blackboard course management system.

Faculty need a computer, either their own laptop or the podium computer in a smart classroom, to use clickers during class. Students simply purchase and register an i>Clicker voting unit. For the Krieger School of Arts & Sciences and the Whiting School of Engineering, the Center for Educational Resources (CER) will provide the i>Clicker software and an RF receiver if needed. Interested faculty can borrow a loaner i>Clicker system to try out in a class up to 50 students. For other JHU schools, contact your divisional instructional support center for information.

Photograph of an i>clicker2

In-class voting technologies were first piloted in classes on the Homewood campus in spring 2003. Since then in-class voting has become ubiquitous in large enrollment classes at Homewood; over 2500 students per semester use the system. Clickers are used in courses such as biology, chemistry, civil engineering, earth and planetary sciences, history of science and technology, materials science, physics, and psychological and brain sciences.

Clickers allow faculty to engage students quickly and easily. They enable faculty to:

  • Give and grade objective pop quizzes on readings or other assignments
  • Conduct in-class polls in real time
  • Stimulate class discussion by posing subjective questions, using either ad-hoc or previously developed questions
  • Manage, record and run reports on all aspects of students’ performance using the system
  • Take attendance

In a typical example, an instructor poses a question, often multiple-choice, to the class. Then students think about the question and submit their responses using their handheld wireless transmitters (clickers). Responses are beamed to a receiver plugged into the instructor’s computer. Software on the computer processes the information quickly and displays a bar chart showing the distribution of student responses. Instructors can then use these responses to decide how to proceed in the class.

Opinions vary on whether or not to use clickers for grading class attendance. Some instructors simply use clicker votes to count as participation points, just as they might grade students in discussions. For instructors who would like to monitor attendance over time, clickers can record attendance.

Instructors have found that using clickers has dramatically increased attendance in class, enhanced just-in-time teaching capabilities, increased classroom participation and simplified the deployment and grading of quizzes and exams. Data collected over several years in several courses show a direct correlation between clicker participation and final grades. Clickers are generally considered to be one of the foundations of an active learning classroom.

Faculty who are interested in learning more about the in-class voting system should
contact Brian Cole (bcole@jhu.edu, 410-516-5418) or drop in to the Center for Educational Resources on Q Level in the Milton S.Eisenhower Library.

Clicker Resources

Richard Shingles, Lecturer, Department of Biology
Direcctor of the TA Training Institute, Center for Educational Resources


Image source: Photograph © Brian Cole