CAUSE 2000

Energy Choices for the Next Millennium: Costs and Consequences
 
Derek Elsworth and Semih Eser

Department of Energy and Geo-Environmental Engineering, PSU

 

 

Meeting Time 

6:00-9:00 pm, 8 Deike Building

Instructors

Derek Elsworth            119 Hosler   863-1643            elsworth@psu.edu

Semih Eser            154 Hosler   863-1392            seser@psu.edu

 

Website

www.geoee.psu.edu/courses/cause.html

 

Credits

3 in Sp ’00 and 3 in Fa ’00

 

Course Rationale and Background

Scientifically speaking, energy cannot be produced, or consumed; it can be converted from one form to another. To provide a highly desired form of energy-electricity, and high-speed mobility for industrial society, fossil fuel combustion and nuclear fission have been chosen as the principal modes of energy conversion. These processes, including fuel preparation before the actual conversion step, are largely responsible for many environmental problems, including air pollution, water pollution, radioactive waste disposal, and the threat of global climate change. Air emissions from fossil fuel combustion have reached levels that overwhelm the natural cycles, increasing the pollutant concentrations in air and water, and affecting the energy balance of the earth. The attendant changes in the composition of the earth’s atmosphere and water bodies threaten the ecosystems and the well-being of living species. Scaling back the anthropogenic impact on the environment would require drastic changes in the modes of energy conversion, dictated by government regulation and/or market forces, in the coming decades of the new millennium.  

Objectives

To explore the energy conversion choices to determine viable means of reducing the environmental impact of energy conversion that are economically and politically acceptable, and technologically feasible.

Collaborative Learning

We will work in small groups to define the important learning and research issues  in the energy-environment connection, and explore energy strategies for circumventing adverse environmental consequences of energy conversion.

Deliverables

A series of early milestones are set. Initial class discussions will define learning and research issues and form four teams of four students in each group to address these issues. Groups will initially explore topics of greatest relevance for a basic understanding of energy  conversion technologies and their environmental impact, presenting their findings to the class, and defining the direction of future activities. The ultimate goal is to chart an energy strategy for Pennsylvania and the US that is economically and politically feasible, and substantially limits any adverse environmental effects.

Texts

Global Energy: Perspectives, edited by Nebojsa Nakicenovic, Arnulf Grübler, and Alan McDonald. Cambridge University Press, 1998. ISBN: 0521642000 and ISBN 0521645697 (pbk)

Introduction to Energy : Resources, Technology, and Society, Edward S. Cassedy and Peter Z. Grossman. 2nd edition. Cambridge University Press, 1998. ISBN: 0521631068 and ISBN: 0521637678 (pbk)

The Energy-Environment Connection, Edited by Jack M. Hollander ; foreword by Rev. Theodore M. Hesburgh. Publisher: Washington, D.C. Island Press, c1992. ISBN: 1559631198 (acid-free paper) and ISBN: 155963118X (pbk).

Renewable Energy: Sources for Fuels and Electricity, Edited by Thomas B. Johansson et al., Executive editor, Laurie Burnham. Island Press, Washington, D.C. c1993. ISBN: 1559631392 (cloth) and ISBN: 1559631384 (pbk)

The Almanac of Renewable Energy, by Richard Golob and Eric Brus. 1st Ed. H. Holt, New York, 1993. ISBN: 0805019480 (alk. paper)

 

Scheduling - Spring 2000

We will define and explore the learning and research issues for a basic understanding of different energy conversion technologies and their environmental impact in the areas with the greatest impact, and concentrate on these as the focus for our further study. We will compile an online resource encyclopedia, complete with our evaluation of the relevant issues. From this standpoint we will provide an analysis of the feasibility of alternate energy supplies, identify candidate energy substitutions, and complete a detailed evaluation of their implementation. Activities in this semester will focus on comprehending technical and environmental aspects of energy conversion processes.

Intersession 2000

We will initiate a yet-to-be-prescribed learning/research project (2 weeks) for data gathering or study tour activities.

Fall 2000

We will analyze the gathered data and the results from the activities in Spring 2000 in the context of social and political aspects of energy conversion.  The activities in this semester will concentrate on analyzing the recent energy strategies and energy policies in the US with particular emphasis on the 1992 Energy Policy Act and 1998 Energy Strategy.  All the groups will work together in developing viable energy strategies for Pennsylvania and the US.  

 

 

 

 Activities

Duration

Completion

1

Define problem. Outline major learning/research issues. Form teams. Deliverable: Summary reports to class from teams.

1 week

Jan 16                  

2

Concept  maps of Greenhouse Effect from individual teams as related to specific learning issues.

Deliverable:  Presentation of concept maps in class.

1 week

Jan 23                                                                                               

3

Prioritize issues and construct concept maps.  Complete preliminary survey.

Deliverable: Concept maps, survey summaries, and plans for future work (road maps). Define critical uncertainties.

1 week

Feb 3

4

Define regions for study. Define scope of study. Prepare mini-proposal in groups for presentation in class.

Deliverable: Class presentation of proposal.

2 weeks

Feb 10                                                                                           

6

Define future schedule of activities for the remainder of the term. Begin regional studies.

Deliverable: Class presentations and Progress Report.

2 weeks

Feb 17

7

Hydro- and tidal-energy: Kate & Kellie.

Status reports from regional groups – organize collaborative tasks

1 week

Feb 24

8

Nuclear energy: Debbie & Stephen.

Status reports from regional groups.

1 week                                                                                               

March 2

9

Coal and Fossil Fuels: Obi & Pat.

Status reports from regional groups.

1 week

March 16                                                                  

10

Biomass energy: Jim & MaryBeth.

Status reports from regional groups.

1 week

Mar 23

11

Solar energy [PowerPoint file]: Bryan, Scott & Terri

1 week

Mar 30

12

Wind energy: Garrett and Kristy

1 week

April 6

13

Fuel cells [PowerPoint file]:Nate & Vince

1 week

April 13

14

Geothermal energy [powerpoint file]: Eric & Shawn

1 week

April 20

15

Prepare for research project and reflect on the accomplishment of learning/research issues

1 week

April 27            

 

Class presentations of completed activities will take place on the date shown.

 

Grading

 

Concept maps:                                      10%

Progress Reports:                                  30%

Final Report:                                          10%

Class Presentations:                              20%

Class Debate:                                        10%

Project Proposal:                                   10%

Peer Grade from Team Members:             10%