SAMR in Higher Education

SAMR is an acronym for Substitution, Augmentation, Modification, Redefinition. This model of technology integration was developed by Ruben R. Puentedura, Ph.D. who began researching this topic because he wanted to ensure that the use of technology enhanced teaching practice. The SAMR model provides a technique for moving through degrees of technology adoption to find more meaningful uses of technology in teaching and move away from simply using “tech for tech’s sake”.

In the following video, Candace Robertson explains SAMR in less than 2 minutes (remember microlectures from last week?) with a writing example:

but SAMR has been used within various disciplines to rethinking how technology is used for teaching, in communications with students, in collaborations, as well as for assessments and course design.

While critics have debated the theoretical underpinnings of this model. It has been widely adopted in education, including by the creators of Canvas, who used it, along with Bloom's taxonomy, to inform the development of functions and tools within Canvas. This chart (created by Instructure, the developers of Canvas) explains how they envision how Canvas functions can be used at each level of the SAMR model as you teach:

Screenshot of Google Spreadsheet that describes how to use the features in Canvas in alignment with Bloom’s Taxonomy and the SAMR model.

Screenshot of Google Spreadsheet that describes how to use the features in Canvas in alignment with Bloom’s Taxonomy and the SAMR model.

Click on the image above for access to the sheet.

Microlectures

A microlecture is a brief video or audio recording, or multimedia presentation covering a single concept or topic. Originating as 60-second lectures, they have since expanded to include clear, concise descriptions of a single topic or idea in under 6 minutes. These lectures can be used in online, blended, or face-to-face contexts (see 7 Things You Should Know About Microlectures: https://library.educause.edu/resources/2012/11/7-things-you-should-know-about-microlectures).

Microlectures have several benefits and can raise the awareness and curiosity of students by:

  • Introducing a learning topic and its objectives with personal touch.

  • Providing learners with a brief overview of key concepts.

  • Demonstrating a single problem-solving procedure.

  • Explaining the step-by-step instructions needed to complete a summative assignment.

Watch this microlecture to learn more about the benefits of microlectures (see what I did there?)


Microlectures align with the cognitive psychology concept of chunking, or the capacity of human’s working memory to process or manipulate information.

A great primer on microlectures, with examples and resources can be found here: https://docs.google.com/presentation/d/1niiDNQFKCpZ9QhzV9CYFEnNfU-YExlPPyW6CoayJLgU/edit?usp=sharing It was developed by the California Virtual Campus Online Education Initiative On slide 9 they discuss how to create a quick whiteboard video with Screencast-o-matic + OneNote + a paper tablet. If you recorded your lectures this Fall or Spring and want to extract clips that can be used as microlectures.

Additional Resources

Supporting Online Discussions

One of the greatest challenges for faculty is that students often come to class not having completed assigned readings. This makes it difficult for them to participate in discussion, and it may also make it difficult for them to follow the material you have planned for the day/week.

Synchronous or Face-to-face: Spend 5 minutes at the end of class going over key points in the readings you are asking students to do for the next class period. This type of advance organizer will enable them to place what you are asking them to read in a more meaningful and comprehensible context. Spend 5-10 minutes at the beginning of class having students discuss (in pairs or in small groups) two or three quick questions about the readings. Students can assist one another in clarifying the readings, or bring their collective confusion, if any, to you. You may want to have students turn in notes (or a Google Doc) from their discussions, or something similar, as evidence that they had something to contribute to the conversation.

Asynchronous: Without the cues of co-presence in the classroom, it is more important than ever to direct students’ attention before they read, watch, or listen to something. These concrete experiences are the foundation of an effective learning cycle. It is useful to explain the purpose of the experience or give specific guidance on what things students should be paying special attention to or looking for. Students report greater engagement with readings when they are given specific sections or pages to focus on and a purpose for the reading. Tips about how experts in your discipline read an article, a primary source, etc. are also useful (Middendorf & Shopkow, 2017). (A brief example of this from history can be found here.)

Specific strategies include:

Anticipation Guides: Before viewing a lecture or starting a reading, students can be asked to take a minute or two to generate an anticipation guide (Major et al., 2016). Based on the previous content, the main topics, and keywords, each student generates their own list of questions they expect to be able to answer at the end. This can be completed as a mini assignment in Canvas where students generate 3-5 questions before viewing a lecture and submit the answers to their questions after viewing. A video introduction can provide an overview and explain how the activity will help students practice thinking like an expert.

Guided Notes with a Twist: Basic guided notes are outlines or lecture slides with missing words or content that students complete during a lecture (Major et al., 2016). A modified version focuses students’ efforts on higher-order thinking. The shared document includes the lecture agenda, key definitions, and spaces for note taking, plus targeted questions that ask students to apply, compare and contrast, elaborate, or make connections (Golas, 2018). These questions provide great moments to pause a lecture when students’ cognitive load may be reached and switch to different cognitive processes that reinforce their understanding (Harrington & Zakrajsek, 2017).

For pre-recorded lectures, students can pause the lecture to answer the question in their notes or the questions can serve as a discussion forum activity between recorded mini lectures. Students have been shown to be particularly engaged with these notes when they are the same kinds of questions asked on quizzes, major assignments, or exams. Tools such as TopHat, and Kaltura can be used to integrate questions within the lectures and record student responses.

Teaching With Microsoft Teams

Last week, I had the opportunity to work with a class that used Microsoft Teams to manage a group project. Students were divided into 14 groups or (channels) of 5. After establishing group norms, students are given the freedom to complete the group assignment synchronously or asynchronously, depending on their schedules. When they used the video conference features, the instructor was able to see who attended and for how long, if they met within the channel. Students also had the capacity to add the instructor to meetings (if needed; based on availability). All files that were needed for the project were hosted in OneDrive but had a “physical” representation within Teams that students were able to access without leaving the interface. Teams allowed for screen and file sharing, chatting, and Word markups. The course did not create the assignment in Teams, but it is possible to do so, as well as create a rubric within Teams, and import them into Canvas.

While this sounds like an advertisement for Teams, it isn’t. My goal is to let you know (or remind you of) alternatives you can use if you are looking for technological teaching tools that are a better match your pedagogical style than what you are currently using.

There are many free, short tutorials from Microsoft https://support.microsoft.com/en-us/office/microsoft-teams-video-training-4f108e54-240b-4351-8084-b1089f0d21d7, and as always, I am happy to help you with you with teaching and learning

Create a classroom culture of inquiry and mistake-making

Adapted from codetribe.

It’s great if you can answer student questions, but you’re not always going to have the answer, and that is okay. Share with students the reality that the disciplines taught within Luddy are vast, where no one knows everything. Developing software and addressing big questions related to the ethical use of technology is not about having the answers, but about cultivating the ability to figure things out using your resources: your classmates, the internet, the libraries, and your instructor.

Encourage students to follow a personal empowerment protocol to figure things out when they have a question. Similar to, “ask three, then me,” (C3B4Me)

this protocol encourages students to…

  • Ask a peer

  • Google it / Look it up at the library

  • Ask the instructor

This protocol both helps students become independent problem-solvers, and also helps ensure the instructor isn’t bombarded with questions.

Finally, normalize errors and mistake-making.  Every time you compile your code in front of the class, announce that you’re going to check for any errors, which are just a normal part of a programmer’s life. Whenever you get an error or when a student sheepishly confesses that they have 20 compiler errors, remark on how totally normal that is.

Go the extra step and get excited when a student says they have 20 errors, or even better, a “fatal error”! Model being unfazed by errors and in fact seeing errors as an opportunity to learn new things. As a teacher, helping students debug IS an opportunity for you to learn more about how to be a better teacher and anticipate a wider range of student errors!

When you model this attitude, students will follow suit. As a result, they will be less likely to get discouraged by 20 compiler errors and learn to celebrate them with you as a representation of all the things the class has learned.