“Students in inverted classrooms need to have more space to reflect on their learning activities so that they can make necessary connections to course content” (Strayer, 2012).
If you were to observe a flipped classroom, what do you think would it look like? Maybe students are working in groups. Maybe each group is working on a different problem. Maybe the instructor is walking around the room talking with each group and checking on the students’ progress. And each group of students is probably asking a different question each time the instructor walks by. It’s probably noisy since everyone is talking to each other or engaged in a task. And students are probably standing up or leaning in towards one another to hear their group members talk about the next task. Students might be writing in a workbook, typing on their laptops, or watching a video on the screen of some new technological device.
Problem solving is “what you do when you don’t know what to do.”
What a simple, straightforward definition for something often defined in much more complex ways. But problem solving doesn’t always mean the same thing. It might be the solution to a specific problem, like those that appear on math quizzes, or it might be a collection of possibilities that respond to a complex open-ended problem. But however it’s defined, problem solving is one of those skills all teachers aspire to have their students develop.
In a Journal of Engineering Education article (referenced below), Richard Felder and Rebecca Brent propose an instructional model that promotes the intellectual development of science and engineering students. Among a number of conditions they identify as being relevant to intellectual development, they suggest particular kinds of problems for students to solve. Their list (summarized below)