Lunch and Learn: Flipped courses: What is the purpose? What are the strategies?

Logo for Lunch and Learn program showing the words Lunch and Learn in orange with a fork above and a pen below the lettering. Faculty Conversations on Teaching at the bottom.On Thursday, October 20, the Center for Educational Resources (CER) hosted the first Lunch and Learn—Faculty Conversations on Teaching for the 2016-1017 academic year. A panel of faculty including Avanti Athreya, Assistant Research Professor Applied Mathematics & Statistics; Michael Falk, Professor Materials Science & Engineering; Bob Leheny, Professor Physics & Astronomy; and Soojin Park, Assistant Professor Cognitive Science; spoke briefly on their experiences and engaged in a lively discussion with attendees on Flipped courses: What is the purpose?  What are the strategies?

Avanti Athreya described flipping a large lecture course in Fall 2015 with her colleague, Dan Naiman, Professor, Applied Math & Statistics. The 4 credit course, Statistical Analysis I had previously met four times a week for 50 minutes – three lectures by faculty and one small-group meeting led by a TA.  Starting in Fall 2015, students watched several short videos (5-15 minutes each) before the week started.  The videos were created by Athreya and Naiman using Camtasia. Students then met once for a 75-minute lecture with the instructor and twice in small-groups with a TA.  During these sessions students, working in teams of three, solved problems with a TA available for help as needed.  Clicker quizzes were given at the beginning of each lecture to motivate students to watch the videos. Athreya noted that clear learning objectives were listed at the beginning of each video. Challenges included initial resistance from the students (she stated that there had been less of that this semester, the second iteration of the flipped course), and that students often need alternative explanation for concepts. Typically, the videos cover an idea in one way. In a lecture, the instructor noting confusion may offer another explanation for clarification.

Soojin Park co-teaches Cognitive Neuroscience: Exploring the Living Brain with Brenda Rapp, Professor, Cognitive Science. This 3 credit course has an enrollment on average of 250 students. Park and Rapp flipped their course in Spring 2016, with a goal of putting more emphasis on student exploration. They videotaped scripted lectures (these videos were shorter and more focused than the lectures in the traditional course) and posted them on Blackboard. Students took quizzes on the video content. Students met twice a week in sections of about 25. One section was structured as a review section, the other as an active learning section. The challenge was to create the active learning activities. They decided to emphasize practical skills, such as exercises to learn spatial areas of the brain using 3-D software. These activities were all group based. There were worksheets for each session. For the final project, students developed a mock NIH proposal. Park and Rapp found a 5% learning improvement on the final exam (the questions were reused from the previous year to allow comparison) as well as higher course evaluations.

Bob Leheny reported that he is in the fourth year of teaching an active-learning version of Introduction to Physical Sciences, which incorporates a flipped classroom model. The course serves 700 students each semester. Before class, students watch videos that were developed at the University of Illinois. Leheny noted that there is a great deal of video content already developed for teaching introductory physics, so the faculty developing the course here were spared having to create their own. Faculty are able to track how much time students spend watching the videos. The course was developed with funding from a JHU Gateway Sciences Initiative grant, which included the design and implementation of an active learning classroom that seats 80 students. In the classroom, students review the video content, then work collaboratively in groups of three on exercises and experiments that explore the topic for the day. The course is supported by three graduate student TAs and four undergraduate TAs. Leheny said that one of the challenges was time management in the active learning setting. He compared the instructor and TAs to “waiters working the tables” where students were doing the activities and exercises. There is a constant monitoring of where students are and what they need.

Michael Falk was an early adopter of flipping the course. He now flips two courses: his undergraduate Computation and Programming for Materials Scientists and Engineers, with an enrollment of 35, and a graduate course, Thermodynamics of Materials. For the undergraduate class he created his own videos using Screen Flow. Students take quizzes on the video content before class. In class students work through exercises collaboratively. Falk uses Class Spot to facilitate this work. Class Spot allows screen sharing; students can see how their classmates worked out solutions to problems. For his graduate course in thermodynamics, Falk made short, Khan Academy-style videos using Quick Time. The students watch the videos before class and use class time for problem solving. He also made use of an application called Perusall for annotation exercises. His found in general that his students like it better if there is a short recap of the video material at the beginning of class. Falk feels that the biggest challenge with flipping is finding meaningful activities for class time.

Some key points covered during discussion included:

  1. Making sure that students aren’t assigned too much to do outside of class–videos should replace some of the reading or other homework assignments.
  2. It may be necessary to incentivize students to watch the videos. This can be in the form of quizzes.
  3. If group or collaborative work is done in class, follow best practices for creating groups. Groups of three are ideal. It is best not to have two males and one female in a group as has been shown in research on gender construction of teams. Group work presents valuable experiences for students. For those going into STEM fields, collaboration will be the norm, thus is a good skill to acquire. Group work can help minimize the negative aspects of competition in a classroom.
  4. Base in-class activities on the student learning goals for the course.
  5. Keep videos short, even, or especially when using a lecture-style delivery of the content. Scripting of lecture delivery was advised, as well as adopting a modular concept. Each lecture video should focus on one idea.
  6. Faculty who had flipped their courses noted that preparation for the initial offering of the course took a tremendous investment of time, but that the results had been worth the effort involved.
  7. Several faculty from the humanities discussed whether a flipped model could be used in their class situations, and specifically whether video delivery offered any advantage over reading a text. Certainly offering a variety of learning modalities can be valuable for students coming to a course with different backgrounds and understanding. A humanities course might not benefit from being flipped in total, but having students work together in class to develop specific skills, such as close reading, could prove valuable.

In all, the session was interesting and informative. If you are an instructor on the Homewood campus, staff in the Center for Educational Resources will be happy to talk with you about flipping a course.

Macie Hall, Senior Instructional Designer
Center for Educational Resources

Image source: Lunch and Learn logo by Reid Sczerba, Center for Educational Resources.

Silence is Golden

A recent post in Tomorrow’s Professor by Joseph Finckel, Associate Professor of English at Asnuntuck Community College in Connecticut, suggested an innovative approach to teaching courses that have a discussion-based component. He writes: “I teach English, and midway through the spring 2013 semester, I lost my voice. Rather than cancelling my classes, I taught all my courses, from developmental English to Shakespeare, without saying a word.”

Black and white drawing of a man with his mouth taped shut.In The Silent Professor, Finckel notes that with an instructor-centric approach, talking is often confused with teaching. What he observed when he had laryngitis has compelled him to “lose his voice” at least once a semester since. “A wealth of literature focuses on active learning and learner-centered instruction, but I submit that nothing empowers learners as immediately and profoundly as does removing the professor’s voice from the room.”

Finckel points out that there are non-verbal actions the instructor can employ such as writing on the board, posing questions by typing into a projected document, and using gestures. Further, he tells us that considering when and for what reasons to speak assists developing “…an intentional, reflective teaching practice.” Student response has been positive. Finckel feels that is because he is creating a situation where learning will occur. “Teaching without talking forces students to take ownership of their own learning and shifts the burden of silence from teacher to student. It also forces us to more deliberately plan our classes, because we relinquish our ability to rely on our knowledge and experience in the moment.”

Although such an approach wouldn’t be appropriate for a large lecture class, it is useful to think about whether talking too much or too soon inhibits students. In working with faculty who teach discussion-based courses, one pitfall is being afraid of the silence after asking a question. It’s all too easy to fall into the habit of answering the question yourself when the silence is deafening. That simply reinforces the students’ belief that if they wait long enough, they’ll be off the hook.

Check out the article for more details on implementing the silent approach. Maybe that next case of laryngitis will be an opportunity rather than bad luck.

Macie Hall, Senior Instructional Designer
Center for Educational Resources

Image source:

Making Maps Making Connections

Using mapping as a learning tool for students offers several outcomes. Students develop skills in framing material within temporal and geospatial constructs. The ability to layer data and various media types in creating a map furthers critical thinking and gives students opportunities to understand course content in a complex spatial context. Mapping can be thought of beyond the sense of traditional cartography; we can use images of the universe, floor plans of a building, or molecular structures as the basis for maps on which students can build a story pertaining to their course work and/or research. Fortunately, there are some great tools, freely available, for you and your students to use for mapping projects.

Previously in a post on Resources for Multimedia Creation (October 8, 2014) I mentionedAn 1691 French map of the city of Kamianets-Podilskyi, located in western Ukraine. Google Maps for developers. “With Google Maps Application Programming Interface (API) users can expand, customize, and embed maps and mapping tools into their websites. This includes combining Flickr (the photo sharing website) content with maps. These work well with Google Sites and Google Docs.” Check out the tutorials and articles to get an idea of the types of projects Google Maps will support.

Harvard World Map, developed at Harvard University, is described as “…an online, open source mapping platform developed to lower barriers for scholars who wish to explore, visualize, edit, and publish geospatial information.  The system attempts to address the gap between desktop GIS which is generally light on collaboration, and web-based mapping systems which often don’t support the inclusion of large datasets.” Harvard World Map allows users to import and make visual large GIS data sets. The application facilitates the use of multiple layers to create complex visualizations. Maps can be kept private or shared. There are examples on the homepage as well as a large number of shared maps found under View a Map. This would be a good option for someone wishing to examine correlations among several data sets without having to deal with the steeper learning curve of a program such as ArcView GIS.

For those using Omeka [see,, and a previous Innovative Instructor post, Omeka for Instruction], the Neatline plugin offers a set of tools to allow “…scholars, students, and curators to tell stories with maps and timelines.” Neatline was developed at the Scholars’ Lab at the University of Virginia Library. Omeka and Neatline are designed specifically to support online collections and exhibitions. Take a look at the demos to get a sense of the rich and complex ways in which cultural heritage artifacts, photographs, or other documentation can be layered over maps to provide complex and nuanced interpretive readings of the collected materials.

If you are teaching in the Krieger School of Arts & Sciences or the Whiting School of Engineering at Johns Hopkins, there is another option: Reveal.  Developed here at the Center for Educational Resources, Reveal uses mapping, in the sense of the term that refers to hierarchical image mapping, combined with annotation. “Reveal is a web application for annotating images with rich multimedia content. Using Reveal, you can create a website where image annotations link to image, audio and video resources to illustrate visual relationships.” Watch the video to get a better idea of how Reveal works. Reveal uses JHU authentication and for the present is available only to those teaching on the Homewood Campus.

Macie Hall, Senior Instructional Designer
Center for Educational Resources

Image source: – An 1691 French map of the city of Kamianets-Podilskyi, located in western Ukraine.