Educational
Objectives of the BWR Program:
The BWR program is a
self-taught course of instruction in nuclear power plant technology.
The program is designed as a lab or classroom adjunct to a university course
in Nuclear Engineering, Physics, or other engineering disciplines.
The BWR program attempts to fill a void
typically missing in university course work - an opportunity to
validate theoretical concepts in a real-world setting.
How the BWR Program Meets Its Objectives:
The BWR Program is a
real-world, hands-on application:
- The BWR simulation is modeled after
a real boiling water nuclear power plant. Specifically, it models a
typical plant in the General Electric BWR-4 product line. Of the
world-wide total of commercial nuclear power plants currently in
operation, over 60 are Boiling Water Reactors designed and built by the
General Electric Company, with over 30 additional BWRs based on the GE
design. The Boiling Water Reactor simulated by the BWR Program is typical
of these plants. The BWR-4 is the most prevalent Boiling Water Reactor
plant design, accounting for 25 of the operating BWRs. The differences
from one BWR plant design to the next are, however, minor in nature. They
are all essentially the same type of power plant, and experience gained in
operating the BWR Program will extend to the operation of any Boiling
Water Reactor.
- The scope of the BWR Program
simulation goes well beyond that provided in other PC-based simulations.
See Scope of Simulation.
Demonstrated reactor physics
concepts:
The BWR Program provides theoretical
discussions of many of the fundamental aspects of reactor physics (the atom,
the fission process, reactivity, etc). In the simulation (especially
in the BWR Interactive Tutorial) these concepts are specifically called out
and demonstrated as the student manipulates the plant controls.
Examples include:
- Transition to criticality below the
point of adding heat (source range counts, reactor period response
demonstrating subcritical multiplication, criticality, etc.)
- Flux response to rods/control rod
worth as a function of rod notch position, peripheral rod selection, cold
to hot, etc.
- Reactivity coefficients (moderator
temperature coefficient magnitude change during heatup), etc)
Self-taught instruction:
- The BWR Technology Training
provided by the program is totally self-contained. The BWR
Interactive Tutorial and accompanying Simulator Manual provide all of the
course content and instruction needed. The option exists, of course,
to integrate the program into existing, applicable classroom or lab
instruction.
- Students can complete the study,
exercises, and examination (simulator certification exams) independently
and at their own pace.
- The program scope, depth of
content, and areas of emphasis can be easily modified to meet specific
academic needs.
Top |
|