Background: Ray Burnstein,
Illinois Institute of Technology
Application: Paul Dolan,
Mahmoud Khalili, Richard Delzenero, Ilya Gulkarov, Northeastern
Illinois U
Part I
A wide overview of wireless keypads will be
presented ranging from their usefulness in the classroom to the
hardware itself. The ability of these devices to convert a
classroom/lecture of passive audience into a group of more active
learners will be discussed. This can be done while still preserving
much of the traditional lecture format. We also will summarize
the variety of commercial wireless keypads that are currently in use
and those that will soon become available.
Part II
For the past
three years, NEIU has been using an automated student response method,
in particular the “PRS” system in general education Astronomy lectures,
and this year also began using this system in the ‘conceptual physics’
lecture. Each student is required to obtain a PRS ‘clicker’, and
of course to bring it to class. The system allows students to
respond to multiple choice questions posed by the instructor, and gives
immediate and anonymous feedback on student knowledge and
learning. The questions may be either pre-prepared questions, or
ones that arise during class.
We will briefly discuss our experience with this system, and then
present a sample lesson, with PRS questions included. ‘Clickers’
will be available to allow the audience to interactively answer the
questions posed during the lesson. We will also provide several
handouts on the effective use of the student response system, and PRS
in particular.
Problem Solving in Physics
Charles Henderson (Charles.Henderson@wmich.edu), Western
Michigan University
Problem solving is a nearly universal component of physics
instruction. Students are expected to learn physics by watching
the teacher solve problems and solving problems on their own.
Learning is typically assessed by having students solve problems on
tests. Problem solving is also seen by many physics teachers to
be an important learning goal in itself. Because of the
importance of problem solving, it is valuable for teachers to examine
their teaching practices related to problem solving (such as the types
of problems assigned, the way student solutions are graded, and the
structure of instructor solutions) and the assumptions that underlie
these practices. The goal of this workshop is to help
teacher articulate and examine their practices and
assumptions. Examples of a range of possible practices will be
used to anchor the interactive discussion.
Tasks Inspired by Physics
Education Research
Curtis J
Hieggelke (curth@jjc.edu), Joliet Junior College
and
David P Maloney (maloney@ipfw.edu), Indiana University -Purdue
University Fort Wayne
This workshop will feature materials from a collection of new
instructional materials for the topics and concepts in electrostatics
and magnetism. These materials employ various TIPER (Tasks Inspired by
Physics Education Research) formats that include: Ranking Tasks;
Working Backwards Tasks; What, if anything, is Wrong Tasks; Qualitative
Reasoning Tasks; Bar Chart Tasks; Conflicting Contentions Tasks; Linked
Multiple Choice Tasks; Changing Representations Tasks; and other types
of alternative task formats. The tasks are arranged into sets of issues
or questions that provide ways of asking the same or connected
questions in different ways. TIPERs can be readily deployed in an
active learning mode as well as in a traditional lecture mode. They
require little student learning to handle the task format, and these
tasks can be used as tools for assessment. They are designed to provide
small incremental changes as they are implemented, so teachers should
find them fairly easy to incorporate them into their classes.
Participants will be provided copies of published materials and a CD on
TIPERs
Teaching High School Physics
using Modeling Instruction
Yohan Tabora (JTabora@northsideprep.org),
Nathan Harada (NHarada@northsideprep.org), and Brad Noren
(mrnoren@yahoo.com),
Chicago Public Schools
The Modeling Instruction Method for Physics is a guided-inquiry physics
program based out of Arizona State University which revolves around a
small, coherent set of scientific models that comprise the core content
of physics. Students learn basic conceptual tools (graphical,
mathematical, etc.) to accurately describe physical phenomena.
(www.modeling.asu.edu)