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PPL SUSQUEHANNA, INC.
Chemistry Technician
Titles, descriptions, and credit
recommendations for all learning experiences recommended for college credit within the
Chemistry Technician 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
Electrical Maintenance Technician
Engineering
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 Chemistry Technician 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When a credit recommendation is no longer active, the course description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.
BWR Cold Chemistry (CH004)
Chemistry I for
Technicians: Initial Chemistry
Chemistry II for
Technicians: Cold Chemistry
Chemistry for
Technicians: Radiochemistry
Descriptions
and credit recommendations
BWR Cold Chemistry (CH004)
Dates: Version 1: January 1984 - June 1987. Version 2: July
1987 - February 1991.
Credit recommendation: Version 1 or 2: In the lower division
baccalaureate/associate degree category, 4 semester hours (3 lecture, 1
laboratory) in Chemical Engineering Technology (11/85). NOTE:
Complete information on this course last appeared in the 1994 edition.
Chemistry I for
Technicians: Initial Chemistry
Location: Susquehanna Training Center, Berwick, PA.
Length: Approximately 240 hours (6 weeks); includes 62 hours of
supervised laboratory experience.
Dates: June 1990 - December 2007.
Objectives: Apply laboratory safety principles and practices;
review mathematical operations pertinent to plant chemistry and chemical
analysis; identify chemical sampling locations, secure, and transport
samples; describe the use, calibration, and operation of analytical
equipment; discuss acid, base, and buffer properties; use pH and
conductivity data to track water chemistry; perform cell constant and
conductivity calculations; operate conductivity bridge/cell combination;
explain the operation of turbidimeters and use them to analyze water
samples; perform chloride analysis by titration, electrode, turbidimetric,
and ion chromatographic methods; analyze samples for oil and grease
concentration; determine silica concentration by using inline silica
analyzers and uv/vis spectrophotometers; explain the theory of operation
of dissolved oxygen probes; calibrate and maintain dissolved oxygen
system; maintain and operate total organic carbon analyzer; describe the
cooling tower and circulating water systems and collect samples from these
systems; analyze for various types of residues; discuss chlorination
procedures; describe and classify forms of chlorine and their analyses;
use basic statistics to evaluate analytical data; explain how
administrative procedures impact the chemistry section; describe the
radwaste system; secure and analyze rad waste samples; state the details
of the chemistry quality control program and operate within required
guidelines of the program; demonstrate familiarity with basic nuclear
concepts; discuss the nature and modes of radioactive decay and radiation
measurements; locate isotopic characteristics from the Chart of the
Nuclides; use safe radiochemical work practices.
Instruction: Laboratory safety; mathematics of chemical
calculations; sampling methods; analytical laboratory information and
techniques; pH; conductivity; turbidity; chloride analysis; oil and grease
analysis; silica and uv/vis spectrophotometers; dissolved oxygen; total
organic carbon analysis; solid analysis; chlorination; statistics;
administrative procedures for chemistry; radwaste system and sampling;
quality control procedures; radioactivity; dose and exposure measurements;
nuclide chart; radiochemical safety.
Credit recommendation: In the lower division
baccalaureate/associate degree category or in the upper division
baccalaureate degree category, 4 semester hours (3 lecture, 1 laboratory)
in Analytical Chemistry, Instrumental Methods of Chemistry, Chemical
Technology (6/91) (5/95 revalidation) (7/00 revalidation).
Chemistry II for
Technicians: Cold Chemistry
Location: Susquehanna Training Center, Berwick, PA.
Length: Version 1: 178 hours (40 weeks); includes 78 hours
of supervised laboratory experience. Version 2: 240 hours (6
weeks); includes 78 hours of supervised laboratory experience.
Dates: Version 1: June 1990 - January 1993. Version 2:
February 1993 - December 2007.
Objectives: Version 1 or 2: Describe the operation,
sampling, and analysis of samples taken from the various closed cooling
water/chilled water systems; describe the operation of the jacket water
cooling system of the standby diesel generator; collect and analyze
samples from the system; determine boron concentration and discuss the
operation of the standby liquid control system; identify the components of
the auxiliary boiler system and secure and analyze samples from the
system; describe the components and processes of a sewage treatment plant
and maintain and operate the equipment used to perform the required
chemical analysis; explain the uses, operation, and regeneration/cleaning
of resin in the plant, and collect and analyze resin samples; identify
piping and instrument components from P and ID prints and related
drawings; obtain and analyze electro-hydraulic control fluid from the main
turbine; identify components and their functions in a gas chromatograph
system; operate a gas chromatograph and interpret gas chromatograms;
operate and maintain an atomic absorption spectrophotometer; perform
diesel fuel oil analysis to determine viscosity and water, sediment, and
micro-organism content; operate and maintain an ion chromatograph and
interpret standard and unknown data.
Instruction: Version 1 or 2: Closed cooling water/chilled
water system; diesel generator jacket cooling water; boron; auxiliary
boiler samples; sewage treatment and analysis; resins; P and ID print
reading; main turbine electro-hydraulic control fluid analysis; gas
chromatography; atomic absorption spectrometry; fuel oil analysis; ion
chromatography.
Credit recommendation: Version 1: In the lower division
baccalaureate/associate degree category or in the upper division
baccalaureate degree category, 3 semester hours (2 lecture, 1 laboratory)
in Analytical Chemistry, Instrumental Methods in Chemistry, or Chemical
Technology (6/91). Version 2: In the lower division
baccalaureate/associate degree category or in the upper division
baccalaureate degree category, 4 semester hours (3 lecture, 1 laboratory)
in Analytical Chemistry, Instrumental Methods in Chemistry, or Chemical
Technology (5/95 revalidation) (7/00 revalidation).
Chemistry for
Technicians: Radiochemistry
Location: Susquehanna Training Center, Berwick, PA.
Length: Version 1: 232 hours (6 weeks); includes 58 hours of
supervised laboratory experience. Version 2: 280 hours (7 weeks);
includes 58 hours of supervised laboratory experience. Version 3:
244 hours (6 weeks); includes 58 hours of supervised laboratory
experience.
Dates: Version 1: June 1990 - June 1993. Version 2: July
1993 - June 2000. Version 3: July 2000 - December 2007.
Objectives: Version 1, 2 or 3: Discuss rates of radionuclide
decay and perform decay calculations; discuss and classify nuclear
equilibria; discuss the interaction of radiation with matter and apply the
concepts to the principles, methods, and practices of radiation detection;
identify sources of radioactivity in reactor water and off-gas; identify
the components of the reactor water cleanup system; discuss the factors
which contribute to the removal of radioactivity species from reactor
water; explain the properties and capabilities of gas-filled detectors
(Geiger-Mueller and proportional); calibrate and use detectors to collect
data from radiation sources; discuss principles of liquid scintillation
counting; standardize, calibrate, maintain and use a liquid scintillation
counter to perform tritium analysis; perform procedures to determine E-bar
and dose equivalent iodine values; discuss the principles, equipment and
methodology of gamma spectroscopy; interpret gamma spectra for qualitative
and quantitative information; explain the purpose and operation of the
off-gas system; collect and analyze off-gas pre and post-treatment
samples; use oscilloscopes and multimeters to perform equipment
calibration; operate and collect samples from the System Particulate
Iodine and Noble Gas Unit (SPING); complete a PING/SPING calibration, a
SPING functional test, and a post-accident vent stack sampling system
functional test; operate, calibrate, and take samples from the containment
radiation monitoring system; locate, calibrate, and discuss the importance
of liquid process radiation monitors.
Instruction: Version 1, 2, or 3: Radioactive decay rates;
radiation matter interaction; radiation sources in reactor water and
off-gas; radioactivity build up and removal from reactor water; gas-filled
detectors; liquid scintillation counting; E-bar and dose equivalent iodine
determination; gamma spectroscopy; off-gas system; test equipment for
chemical instrumentation; SPING for chemistry; SPING calibration;
containment monitors; liquid process radiation monitors.
Credit recommendation: Version 1, 2, or 3: In the lower
division baccalaureate/associate degree category or in the upper division
baccalaureate degree category, 3 semester hours (2 lecture, 1 laboratory)
in Radiochemistry (6/91) (5/95 revalidation) (7/00 revalidation).
Updated
11/28/07
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