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PPL SUSQUEHANNA, INC.
Engineering
Titles, descriptions, and credit
recommendations for all learning experiences recommended for college credit within the
Engineering section can be found below. To
locate information on additional learning experiences, which have also
been recommended for college credit, use the Organization Directory
Page link above for a complete list of titles for
all learning experiences or use
the following links to go directly to other sections:
Auxiliary Operator
Chemistry Technician
Electrical Maintenance Technician
Fire Protection Technician
General
Health Physics Technician
Instructor Training
Instrumentation and
Control (I&C) Technician
Management
Mechanical Maintenance Technician
Reactor Operator
Shift Technical Advisor
Titles
of all evaluated learning experiences in the Engineering section
NOTE:
When a credit recommendation is no longer active, the course description
may be abbreviated. The last edition of the Directory in which complete
information can be found is indicated on the course exhibit. Complete
information can also be obtained by contacting National PONSI.
Emergency Core
Cooling Systems (SY004)
Engineering Science I - Reactor Theory & Radiation Protection (SC015)
Engineering Science II - Thermodynamics, Heat Transfer, Thermalhydraulics,
Corrosion Chemistry, and Metallurgy (SC016)
Engineer Simulator Training
(SM006)
Instrument and Control
(SY028)
Materials Science (SC033)
Mitigating Core Damage (SC006)
Mitigating Reactor Core Damage
Nuclear Materials (SC037)
Power Generation Systems
(SY029)
Print Reading (PT001,
PT003, PT004)
Reactivity
Control and Containment (SY007)
Descriptions
and credit recommendations
NOTE:
When a credit recommendation is no longer active, the course description
may be abbreviated. The last edition of the Directory in which complete
information can be found is indicated on the course exhibit. Complete
information can also be obtained by contacting National PONSI.
Engineering Science I - Reactor Theory & Radiation Protection (SC015)
Dates: Version 1:
July 1985 - April 1988. Version 2: May 1988 - March 1996.
Credit recommendation: Version 1 or 2: In the upper division
baccalaureate degree category, 3 semester hours as Reactor Core
Fundamentals or Reactor Theory in Engineering Technology or Nuclear
Engineering Technology (11/85) (3/91 revalidation). NOTE: The
material in this course when combined with Engineering Science II (SC016)
covers substantially the same material as Licensed Operator Science
(SC023) in the Reactor Operator training program. Credit should be awarded
for SC015 and SC016 or SC023 but not for both. NOTE:
Complete information on this course last appeared in the 2000 edition.
Engineering Science II - Thermodynamics, Heat Transfer, Thermalhydraulics,
Corrosion Chemistry, and Metallurgy (SC016)
Dates: Version 1: June 1985 - April 1988. Version 2: May 1988 -
March 1996.
Credit recommendation: Version 1 or 2: In the upper division
baccalaureate degree category, 3 semester hours as Applied Thermodynamics
in Engineering Technology (11/85) (3/91 revalidation). NOTE: The
material in this course when combined with Engineering Science I (SC015)
covers substantially the same materials as Licensed Operator Science
(SC023) in the Reactor Operator training program. Credit should be awarded
for SC015 and SC016 or SC023 but not for both. In addition, some
topics covered in this course are also covered in STA Heat Transfer and
Fluid Flow (SC027) in the Shift Technical Advisor training program. Care
should be taken in the awarding of credit if both courses are successfully
completed. NOTE: Complete information on this course last appeared
in the 2000 edition.
Engineering Systems
1. Emergency Core
Cooling Systems (SY004)
2. Instrument and Control
(SY028)
3. Power Generation Systems
(SY029)
4. Reactivity
Control and Containment (SY007)
Location: Susquehanna Training Center, Berwick, PA.
Length: 1. 40 hours (1 week). 2. 40 hours (1 week).
3. 40 hours (1
week). 4. 40 hours (1 week).
Dates: 1. October 1983 - December 2007. 2. October
1983 - December 2007.
3. September 1983 - December 2007. 4. September
1983 - December 2007.
Objectives: Courses 1-4: Define system components, boundaries,
parameters, set points, and location; describe effects of system interface
on overall plant operation; identify system lineups for various plant
conditions, i.e., startup, shutdown, routine evolutions, abnormal
evolutions and emergency procedures; describe design considerations of
each system with explanations of overall effect on reactor safety and
describe basic system interrelationships.
Instruction: Courses 1-4: General description and purpose of the
Emergency Core Cooling System; Emergency Diesel Generator System; HPCI;
RCIC; Automatic Depressurization System (ADS); core spray; Residual Heat
Removal and Service Water System; Emergency Service Water System; primary
containment isolation; EHC hydraulics and valve control; Source Range
Monitor; Intermediate Range Monitor; Local Power Range Monitor; Average
Power Range Monitor; Transversing In‑core Probe System; Reactor Manual
Control System; Rod-Block Monitor; Rod Sequence Control System; Rod Worth
Minimizer; Reactor Vessel Instrumentation; Reactor Protection; Process
Radiation Monitoring System; Area Radiation Monitoring System; DC
distribution; and 125, 250, and 24 volt systems; Main Steam System; Main
Steam Isolation Valves; Main Turbine and Auxiliaries; Turbine Lube Oil;
Main Turbine Seal and Exhaust Steam; Main Generator; Main Generator
Hydrogen Cooling and Gas Supply System; Main Generator and Auxiliaries
Hydrogen Seal Oil; Main Condenser; Circulating Water; Cooling Tower;
Condensate; Condensate Demineralizer; Feedwater; Feedwater Heater and
Extraction Steam System; Feedwater Control; Control Room Station Services;
AC Distribution; Off‑Gas Recombiner; solid and liquid radwaste; reactivity
control and containment; the fission process; the reactor vessel and
internals; fuel and control rods, control rod drives, recirculation
system, motor generators and recirculation control; RWCU; Standby Liquid
Control; Primary Containment; structure; isolation; hydrogen control;
atmosphere; control; sampling; leakage control; instrumentation; secondary
containment; standby gas treatment systems; fuel pool cooling and cleanup;
and fuel handling.
Credit recommendation: In the upper division baccalaureate degree
category, 4 semester hours as Plant Systems Overview in Engineering or
Engineering Technology (11/85) (12/86 revalidation) (3/91 revalidation)
(10/96 revalidation) (9/01 revalidation). NOTE: All four courses:
SY004, SY028, SY029, and SY007 must be completed to receive credit.
NOTE: The credit recommendation for these courses reflects a
reconsideration, based on additional information, of an earlier
recommendation. If credit has been granted prior to 12/86, it is
recommended that the credit award be upgraded as indicated above. NOTE:
These courses cover substantially the same material as Susquehanna Plant
Systems (SY003) in General employee training, STA Systems (SY008) in the
Shift Technical Advisor training program, Nuclear Plant Operator Systems
(SY015) in the Auxiliary Operator training program, and Licensed Operator
Systems (SY017) in the Reactor Operator training program. Credit should be
awarded for only one course/course grouping. If more than
one course/course grouping is successfully completed, it is recommended
that credit be awarded based on the comprehensiveness of course content.
The following order is suggested: SY017; SY008; (SY004, SY028, SY029,
SY007); SY003; SY015.
Engineer Simulator Training
(SM006)
Location: Susquehanna Training Center, Berwick, PA.
Length: Version 1 or 2: 40 hours (1 week).
Dates: Version 1: February 1983 - February 1991. Version 2:
March 1991 - December 2007.
Objectives: Version 1: To provide engineering staff with an
overview of system interactions from a control room operation standpoint.
Version 2: Identify basic plant system lineups, perform exercises
of plant startup, shutdown, operation at power, and basic malfunctions.
Instruction: Version 1 or 2: Control room design and layout;
reactor and plant systems startup; Operation of Reactor Feed System; Main
Turbine lubrication oil operation; Main Turbine startup; Generator
startup; operation at power; reactor SCRAM; Reactor Plant Vessel level
control/power control; station blackout, Reactor Plant controls; Primary
Containment controls.
Credit recommendation: Version 1 or 2: In the lower division
baccalaureate/associate degree category, 1 semester hour as a technical
elective or as a Nuclear Operations Laboratory in Engineering or in the
upper division baccalaureate degree category, 1 semester hour as a
technical elective or as a Nuclear Operations Laboratory in Engineering
Technology (11/85) (3/91 revalidation) (10/96 revalidation) (9/01
revalidation). NOTE: This course covers substantially the same
material as License Candidate Simulator Training (SM001) in the Reactor
Operator training program and STA Simulator Training (SM007) in the Shift
Technical Advisor training program. Credit should not be
awarded for more than one course. If more than one course is successfully
completed, the preferred credit award would be in the following order:
SM001, SM007, and SM006.
Materials Science (SC033)
Dates: June 1986 - March 1996.
Credit recommendation: In the lower division
baccalaureate/associate degree category or in the upper division
baccalaureate degree category, 3 semester hours in Engineering Technology
(12/86) (3/91 revalidation). NOTE: Complete information on this
course last appeared in the 2000 edition.
Mitigating Core Damage (SC006)
(Formerly Mitigating Reactor Core
Damage)
Location: Susquehanna Training Center, Berwick, PA.
Length: Version 1 or 2: 40 hours (1 week).
Dates: Version 1: February 1981 - August 1989. Version 2:
September 1989 - December 2007.
Objectives: Version 1: To enable participants to recognize and
mitigate conditions associated with inadequate core cooling, core
degradation, and core damage in boiling water reactors. Version 2:
Explain the sequence of events, the fundamental causes, and the lessons
learned from the Three Mile Island II accident; describe the H2
following an accident; discuss the diverse indications provided by the
nuclear instrumentation system during an accident; discuss the process of
analyzing fission product inventory released from the fuel in order to
determine the extent of core damage; discuss the accuracy of reactor
vessel level indication; explain some significant operating events at
nuclear reactor plants which did or could lead to a degraded core
condition; use plant systems and procedures in mitigating an accident;
explain the potential health physics and radiation monitoring problems
which can exist during a severe accident; describe the events and design
features which contributed to the accident and the lessons learned from
the Chernobyl accident.
Instruction: Version 1: The Three Mile Island transient; hydrogen
hazards; radiochemical analysis; vessel level instrumentation; BWR
operating exercises; recognition of inadequate core cooling; nuclear
instrumentation response in a degraded core; post accident containment
radiation; emergency operating procedures review. Version 2: All
topics covered in Version 1 above; in addition, the Chernobyl accident.
Credit recommendation: Version 1 or 2: In the lower division
baccalaureate/associate degree category or in the upper division
baccalaureate degree category, 2 semester hours in Nuclear Engineering
Technology (6/84) (4/90 revalidation) (5/95 revalidation) (7/00
revalidation).
Nuclear Materials (SC037)
Location: Susquehanna Training Center, Berwick, PA.
Length: 60 hours approximately (self-paced programmed instruction).
Dates: July 1989 - December 2007.
Objectives: Discuss the importance of the special nuclear
properties required for nuclear plant materials; explain the effects of
radiation on material properties and how these effects can be explained
and controlled; describe the physical and mechanical properties of
metallic and ceramic uranium, and how the differences in properties
influence the application of these forms of uranium in nuclear fuels;
describe the nuclear, physical, and mechanical properties of plutonium and
thorium and how their properties influence the performance of these
materials in nuclear reactor applications; define the common structural
materials that are included in the classification of metals, ceramics, and
cermets, and relate the properties of these materials to their selection
and performance as structural components of nuclear power reactors;
explain the design considerations and material properties required for
nuclear reactor components and support systems including: moderator,
reflector, blanket, coolant, control rods, shielding and safety system
materials.
Instruction: This is a self-paced course that uses a textbook along
with units of instruction each of which provides references, objectives,
and information on course material, and assignment sheets with solutions.
Supplementary assignments without solutions are included. The student is
assigned a contact instructor to assist in clarifying activities and
content and to administer evaluations and a proctored final examination.
Topics covered include introduction to nuclear materials; irradiation
effects; uranium: metallic and ceramic; plutonium and thorium; nuclear
reactor structural materials; materials, metals, ceramics, and cermets;
nuclear reactor component materials.
Credit recommendation: In the lower division
baccalaureate/associate degree category or in the upper division
baccalaureate degree category, 3 semester hours in Nuclear Engineering
Technology or other Engineering Technology curricula (4/90) (5/95
revalidation) (7/00 revalidation).
Print Reading (PT001,
PT003, PT004)
Dates: October 1982 - March 1996.
Credit recommendation: In the lower division
baccalaureate/associate degree category, 1 semester hour in Blueprint
Reading (12/86) (3/91 revalidation). NOTE: Courses 1, 2, and 3 must
all be completed to receive credit. NOTE: Complete information on
this course last appeared in the 2000 edition.
Updated 11/28/07
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