ICUPE Program

Conference Description

Each full day of the conference will focus on one of three issues:

During each of the days, the presentations will focus on three sets of students:

Conference Program

Morning session (8-12:30)

Each day begins with a plenary session with a lecture on the day's theme for each group of students. After a coffee break, the group will split into three parallel sessions of three talks, each session being focussed on one of the groups of students.

The morning program will consist of

Afternoon session (2-5)

The afternoon sessions will consist of a poster session (2-3) and a sample class (3-5). During the poster session, presenters will attend their poster on the appropriate theme day. A full schedule of locations and times will be distributed upon arrival at the conference.

Each day, the participants will attend one sample class. Due to space limitations these must be registered for and assigned. You may register for sample classes by sending in the yellow form you received with your registration information or by clicking here and sending it over the web. Those who wait to register for sample classes on-site when they arrive may not be able to get into their first choices

Social Events

University of Maryland Reception and Physics is Phun Show
Large Physics Lecture Halls (1410-1412), University of Maryland
Tuesday, July 30, 6:30-9:30 PM
ACP Reception
American Center for Physics
Thursday, August 1st, 5:30-7 PM
Reception and Conference Banquet
Stamp Ballroom, U. of Maryland
Friday, August 2nd, 6:30-10 PM

Focusing on three types of students

1: Majors -- The physics baccalaureate as passport to the workplace

The undergraduate physics major is often regarded as a means to an end: further study in physics at the graduate school level. Today, the undergraduate physics major is becoming an end in itself as students enter the workplace with their baccalaureate degrees. Thus, the vigor of a physics department will depend more critically on how effectively its undergraduate program provides the knowledge and skills required in the technical workplace of tomorrow. How can the undergraduate physics major serve students entering the workplace directly from college? How do physics departments in different nations link their instructional programs with the demands of the technical workplace?

2: Scientists and Engineers -- Physics in the service of students in other sciences and engineering

Introductory physics courses provide students entrance to the major in physics and on to graduate study. For the vast majority of students, however, introductory physics is the beginning and the end of their study of physics. The faculty of most physics departments depend on high-enrollment introductory courses to support their low-enrollment intermediate and advanced physics courses. Among the students presently served by introductory courses in physics are pre-engineering and pre-medical students. Also, many computer science students and biology students study physics as part of their program. How can the introductory physics course more effectively serve its various constituencies? How do physics departments in various nations work with their counterparts in engineering, medicine, and the other sciences?

3: Teachers -- The physics department's responsibility in the education of pre- and in-service teachers

The teaching of science at the primary and secondary level is of fundamental importance in producing a population that understands science and is responsive to modern technology. Although primary and secondary education is beyond the scope of this conference, the education of the teachers who educate our children is done at the university level. What can physics departments do to play an appropriate role in the training of teachers?


Focusing on three sets of issues

Each set of students will be considered from three points of view:

A: The changing goals of physics courses

Students who leave our colleges and universities are entering a workplace that is much different from the one we entered a generation ago. How can we adapt our courses so as to best prepare our students for the world they will have to live and work in?

B: The impact of physics education research

Studies of what really is happening in physics classrooms are demonstrating that students often take very different ideas away from a classroom than we expect. Can we reconcile how we teach with how students learn?

C: Applications of modern technologies

Information technology such as computers and networks have developed immense capabilities and more is sure to come. How can we use these technologies most effectively to improve student learning?


Morning Schedule

Plenary Sessions A: Wednesday, July 31
8:30-9:00Welcoming RemarksW. E. Kirwan, President, University of Maryland, College Park Campus
9:00-9:45Keynote AddressDonald Langenberg, Chancellor, University of Maryland SystemTitle
9:45-10:30Topic 3AGerry Wheeler, NSTAThe physics department's responsibility: educating future teachers

10:30-11:00 Coffee Break

Parallel Sessions A: Wednesday, July 31
11:00-11:301AJoe Pifer, Rutgers UniversityFlexible requirements and advising: the keys to attracting physics majors
11:30-12:001AChristiaan van Weert, University of AmsterdamMajor/minor as a model for multiple tracks at the University of Amsterdam
12:00-12:301AShiela Tobias, Research CorporationThe science-trained professional—a new breed for the new century
11:00-11:302AGunther Kurz, Esslingen UniversityPhysics in the Engineering Curricula - The situation in Germany
11:30-12:002ADon Thomas & T. Venkataraman, Drexel UniversityDrexel University's Freshman Engineering Physics
12:00-12:302ABruce Sherwood, Carnegie Mellon UniversityGetting computer science students to take more physics
11:00-11:303AHubert Dyasi, City College of NYThe need to develop inquiring teachers
11:30-12:003ARobert Beck Clark, Texas A&M UniversityPreparation for physics teaching: searching for the ideal
12:00-12:303ABrian Schwartz, Brooklyn CollegeInvolving faculty in new and effective techniques in the training of pre-college teachers

12:30-1:30 Lunch

Plenary Session B: Thursday, August 1
8:15-9:00Topic 1BJohn Rigden, AIPThe emergence of the technical workplace and its consequences
9:00-9:45Topic 2BLillian McDermott, University of WashingtonBridging the gap between teaching and learning: The role of research
9:45-10:30Topic 3BKaren Worth, Educational Development CenterScience education for elementary teachers: What it must be

10:30-11:00 Coffee Break

Parallel Sessions B: Thursday, August 1
11:00-11:301BRoman Czujko, AIPThe physics baccalaureate as passport to the workplace: recent research results
11:30-12:001BFred Reif, Carnegie-Mellon UniversityHow can we help students acquire effectively useable physics knowledge?
12:00-12:301BPaul Black, King's College, LondonAims, assessments, and workplace needs
11:00-11:302BRosanne Disteffano, Harvard-SmithsonianWhere an instructor's dreams meet reality: Total available student time
11:30-12:002BRon Thornton, Tufts UniversityUnderstanding changing student views of force and motion
12:00-12:302BCurt Heiggelke, Joliet Junior CollegeThe impact of physics education research on the teaching of scientists and engineers at Two-Year Colleges
11:00-11:303BBob Beichner and John Hubiscz, NC State UniversityU.S. Science Education Standards: Both good news and bad
11:30-12:003BBat-Sheva Eylon, Weizmann Institute, IsraelProfessional development of physics teachers through long-term inservice courses: the Israeli experience
12:00-12:303BJan Smit, Potchefstroom University, South AfricaResearch and the training of physical science teachers in South Africa

12:30-1:30 Lunch

Plenary Session C: Friday, August 2
8:15-9:00Topic 1CIan Johnston, Sydney University, AustraliaThe place of educational technology in the education of physics majors
9:00-9:45Topic 2CJack Wilson, Rennselaer Polytechnic UniversityHow computing, communications, and cooperative learning are changing the education of engineers and scientists
9:45-10:30Topic 3CFred Goldberg, San Diego State UniversityHow can computer technology help promote and model the learning of physics among prospective teachers?

10:30-11:00 Coffee Break

Parallel Sessions C: Friday, August 2
11:00-11:301CMaria Dworzecka, George Mason UniversityCUPS in the classroom: the GMU experience
11:30-12:001CWilliam MacDonald, University of MarylandEnhancing the physics curriculum with Mathematica
12:00-12:301CWolfgang Christian and Gregor Novak, Davidson CollegeWebPhysics: delivering curricular material using the world wide web
11:00-11:302CAlbert Hubler, University of IllinoisCyberprof: an intelligent student-computer interface
11:30-12:002CHans Jodl, University of Kaiserlauten Use of computer technology in Germany for science/engineering
12:00-12:302CPriscilla Laws, Dickinson CollegeWorkshop physics: teaching introductory courses without lectures
11:00-11:303CDavid Hestenes, Arizona State UniversityUniversity - high school interface for professional development of physics teachers
11:30-12:003CAlan Cairns, Bellevue High School, Bellevue WAUsing the Intranet to facilitate student/teacher interaction
12:00-12:303CHans Niedderer, University of Bremen Laboratory tasks with MBL and MBS in introductory physics classes for prospective high school teachers
12:30-1:30 Lunch

Banquet Speaker: Friday, August 2nd
9:00-10:00 PM1Neal Lane, Director, National Science FoundationPhysics education: Boundary conditios and boundless opportunities

Rapporteurs Session : Saturday, August 3
9:00-9:451Don Holcomb, Cornell UniversityPhysics Majors
9:45-10:302Jim Stith, Ohio StateSister Sciences
11:00-11:453Ramon Lopez, APS and U of MdTeachers
11:45-12:304Len Jossem, Ohio StateConference Summary

The afternoon session will be divided between poster sessions and sample classes. The poster sessions will include both invited posters and contibuted presentations.

The afternoon sessions will also give attendees the opportunity to hear about and try out three of the approximately 20 Sample classes offered.


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