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The PER User's Guide is a web resource for physics educators to learn how to teach more effectively by applying the results of physics education research (PER) and teaching methods based on these results. Research in the field of PER has made enormous advances in understanding how students learn physics most effectively and in developing teaching methods that apply this understanding to achieve improved student learning. The goal of this site is to provide a synthesis of decades of physics education research in a format that is easy for busy physics instructors to understand and apply.

As part of our effort to understand which LMS features our faculty depend upon from Blackboard 8, we polled them (84 responded) and we created this breakdown of how they are using our current LMS

The C.R.E.A.T.E. (Consider, Read, Elucidate the hypotheses, Analyze and interpret the data, and Think of the next Experiment) method is a new teaching approach that uses intensive analysis of primary literature to demystify and humanize research science for undergraduates. Our goal is to use the real language of science-the journal article-as an inroad to understanding "who does science, how, and why?"

Academic staff generally perceive students to be more digitally capable than is really the case. A JISC study of 3,500 learners found that while the so-called Google generation have high expectations of digital technology, for example that it will be robust, flexible, responsive to their personal needs, and available anywhere, many learners do not have a clear understanding of how courses could or should use technology to support their learning.

Almost everyone today has flown in an airplane. Many ask the simple question "what makes an airplane fly?" The answer one frequently gets is misleading and often just plain wrong. As an example, most descriptions of the physics of lift fixate on the shape of the wing (i.e. airfoil) as the key factor in understanding lift. The wings in these descriptions have a bulge on the top so that the air must travel farther over the top than under the wing. Yet we all know that wings fly quite well upside down where the shape of the wing is inverted. To cover for this paradox we sometimes see a description for inverted flight that is different than for normal flight. In reality the shape of the wing has little to do with how lift is generated and everything to do with efficiency in cruise and stall characteristics. Any description that relies on the shape of the wing is wrong.

Today we move that effort forward by providing a number of videos that help us better understand how these devices work and what we can do with them in the classroom.

Choosing a system of interest and identifying the interactions of the system with its environment are crucial steps in applying the relation between work and energy. Responses to problems that we administered in introductory calculus-based physics courses show that many students fail to recognize the implications of a particular choice of system. In some cases, students do not believe that particular groupings of objects can even be considered to be a system. Some errors are more prevalent in situations involving gravitational potential energy than elastic potential energy. The difficulties are manifested in both qualitative and quantitative reasoning.