Chapter 12 Covers supplemental Radiation Protection. (RP) Technicians, often referred to as auxiliary or support personnel, play a crucial role in assisting qualified RP professionals in various industries where ionizing radiation is used, such as nuclear power plants, radiology departments, industrial facilities, and research institutions. These technicians provide support in areas like radiation monitoring, contamination control, and emergency response. Their training and qualification are essential to ensure the safe and effective use of ionizing radiation. Here are the key aspects of training and qualification for supplemental RP technicians:
Basic Education and Prerequisites:
Most supplemental RP technicians should have a high school diploma or equivalent.
Some roles may require additional qualifications or certifications, depending on the specific job requirements.
Radiation Safety Training:
All supplemental RP technicians must undergo radiation safety training, which includes understanding the basic principles of radiation protection, the hazards of ionizing radiation, and the importance of safety measures.
Training programs should be tailored to the specific needs and responsibilities of the technicians in their work environment.
Job-Specific Training:
Technicians should receive job-specific training related to their assigned tasks and responsibilities. This may include, but is not limited to, the use of radiation monitoring equipment, contamination control procedures, and emergency response protocols.
Training should cover the proper use and maintenance of equipment and tools specific to their duties.
Radiation Monitoring and Detection:
Technicians should be trained in the operation of radiation monitoring and detection devices, such as dosimeters, Geiger-Muller counters, and scintillation detectors.
They should understand how to interpret radiation monitoring results and take appropriate actions in response to alarms or abnormal readings.
Contamination Control:
If the technicians are involved in activities that may result in radioactive contamination, they should receive training in contamination control measures, decontamination procedures, and the use of personal protective equipment (PPE).
Emergency Response Training:
Technicians should be trained in emergency response procedures, including evacuation, communication protocols, and first aid in case of radiation-related incidents or accidents.
They should understand their roles and responsibilities during emergency situations.
Regulatory Compliance:
Training should emphasize compliance with relevant national and international regulations and standards related to radiation safety.
Technicians should be aware of the importance of record-keeping and documentation in maintaining regulatory compliance.
Ongoing Education and Continuing Training:
Radiation safety practices and regulations may evolve over time. Technicians should engage in continuous education and training to stay updated on changes in the field.
Periodic refresher training and competency assessments should be conducted to ensure that technicians maintain their skills and knowledge.
Supervised Work Experience:
New supplemental RP technicians may require a period of supervised work experience to gain practical skills and knowledge under the guidance of experienced RP professionals.
Certification or Qualification:
In some cases, supplemental RP technicians may be required to obtain certifications or qualifications from relevant professional organizations or regulatory agencies to demonstrate their competency and knowledge.
Quality Assurance and Auditing:
Employers should establish quality assurance programs to periodically audit and assess the performance and qualifications of supplemental RP technicians to ensure ongoing compliance with safety standards.
The training and qualification of supplemental RP technicians are essential components of radiation safety programs in various industries. It is crucial for these technicians to be well-prepared, knowledgeable, and competent in their roles to contribute to the safe and responsible use of ionizing radiation.
This procedure describes the process for training and
qualifying supplemental RP technicians to perform Common Industry RP Tasks (CIRP
Tasks) and to maintain CIRP Task qualifications for portability among nuclear
sites. CIRP Task qualifications are
required beginning in January 2018 to implement Nuclear Industry Standard
Processes (NISP) that will also be effective in January 2018.
This
procedure also describes how an Industry Training Oversight Committee (ITOC)
will be used to consistently apply this program across the industry.
What is a
CIRP Task?
A CIRP Task defines a scope of work, as described in
Attachment 1, for which a supplemental technician must be trained and qualified. The scope of work defined in each CIRP Task
is aligned with the instructions provided in NISP-RP-01 through NISP-RP-10 as
follows:
·
Each
NISP specifies the tasks required to accomplish the scope and purpose of the
NISP and provides instructions for each task.
·
A
CIRP Task number of RP2.XX defines the scope of work that can be performed by a
qualified Junior Technician.
·
A
CIRP Task number of RP3.XX defines the scope of work that can be performed only
by a qualified Senior Technician.
·
The
XX in the CIRP Task number refers to the NISP number that provides the
instructions to perform the scope of work specified by the CIRP Task. For example, RP2.05 defines the scope of work
that a Junior Technician can perform in implementing NISP-RP-05, Access Controls for High Radiation Areas;
RP3.05 defines the scope of work that only a Senior Technician can perform.
How is the
Systematic Approach to Training applied?
The Systematic Approach to Training (SAT) is applied
using the forms and checklists established by EPRI to support Standardized Task
Evaluations (STE) as described in Reference 5.4. The EPRI website is used to maintain the
final versions of the SAT products. SAT products
for each CIRP Task include the following:
·
A
Task Analysis lists the applicable tasks and elements from the NISP with the
following:
Ø Performance standards
Ø Critical steps
Ø Knowledge requirements
Ø Skill requirements
Ø Cognitive enabling objectives
Ø Performance enabling objectives
·
A
Task Objective Form specifies the following:
Ø Cognitive level requirements
(knowledge, comprehension, or application) and the number of questions required
for evaluation of each cognitive enabling objective on a 25 question knowledge
exam.
Ø Evaluation methods (simulate or
perform) that may be used for each performance enabling objective.
· A knowledge examination may be
downloaded or taken directly on the EPRI website.
·
A
performance evaluation can be downloaded and used to evaluate and document if a
trainee passes or fails each performance objective. The administrative process for evaluation is
also included in the downloaded document.
SAT products that are not
developed under the EPRI STE process but maintained on the EPRI website for use
by the industry include the following:
·
A
PowerPoint lesson plan may be downloaded to provide the training needed to
achieve the cognitive enabling objectives.
·
An
Incumbent Evaluation provides a gap analysis between CIRP Tasks and the NEI
Skills described in Reference 5.6 to identify the gap training needed to equate
and transfer NEI Skill qualifications to CIRP Task qualifications.
How will
position qualifications be defined?
Position qualifications will be maintained in PADS
beginning in 2018 using the following criteria:
·
Senior
ANSI 3.1 Technician: All CIRP Task qualifications
have been granted, ANSI 3.1 experience requirements have been met, and
continuing training requirements have been met.
·
Senior
ANSI 18.1 Technician: All CIRP Task
qualifications have been granted, ANSI 18.1 experience requirements have been
met, and continuing training requirements have been met.
·
Junior
Technician: All junior level CIRP Task
qualifications have been granted and continuing training requirements have been
met.
·
Task
Only Technician: Only a portion of
junior level CIRP Task qualifications have been granted.
Beginning in 2018, Attachment 5
will be used to determine how experience will be evaluated and credited towards
ANSI qualifications if the experience did not involve radiological surveillance
and control of areas and work in a nuclear power plant. The adoption of standard criteria will not
change a technician’s ANSI qualification status as previously determined by a
utility. The standard criteria are
applicable to ANSI experience evaluations beginning in January 2018.
In 2018, the continuing training course for NISP gap
training must be completed to attain any CIRP Task qualification using
Attachment 3 regardless of position.
Beginning in 2019, annual continuing training must be completed by
Senior Technicians and Junior Technicians to maintain position qualification. The PADS reports described in Reference 5.9 will
show “suspended” or “not current” for position qualifications and senior level
CIRP Task qualifications for the following conditions:
·
During 2020, a Senior Technician or Junior
Technician has not completed the continuing training course provided during 2019.
·
During 2021, a Senior Technician or Junior
Technician has not completed the continuing training course provided during 2019
or 2020.
Qualifications may be reinstated
by completing the past continuing training courses that were missed unless;
beginning in 2022, a technician has not completed any of the continuing
training provided during the previous three calendar years. In such cases, the technician must complete
initial training for task qualification as described in this procedure.
How will
transition to CIRP Task qualifications be accomplished?
Task performance evaluations
using the NEI Skills will no longer be administered after 2017. Beginning in 2018, initial task qualification
will be accomplished using the EPRI STE process. Technicians will be granted equivalency for previously
completed NEI Skills to transfer previous training to CIRP Task qualifications
as shown in Attachment 3. After 2018, equivalency
for NEI Skills will no longer be granted.
Gap training will be provided to
Senior Technicians, Junior Technicians, and Task Only Technicians to bridge the
knowledge and skill differences between the NEI Skills and CIRP Tasks. Once the gap training is completed, a CIRP
Task qualification may be granted based on previously completed NEI Skills as
shown in Attachment 3. The PADS reports
described in Reference 5.9 will not show CIRP Task qualifications unless the
gap training is completed. The Task
qualifications granted by a utility-specific training program for work within
the qualifying utility are not affected.
What are
the requirements for knowledge of fundamentals?
A junior level fundamentals
course must be completed as a prerequisite to initially qualify for junior
level CIRP Tasks beginning in 2018. A
senior fundamentals course must be successfully completed as a prerequisite to initially
qualify for senior level CIRP Tasks.
Both fundamentals courses are administered using NANTeL and require an
80% passing grade. Incumbents are not
required to complete either fundamentals course if they have completed the
fundamentals training described in Reference 5.6 (also referred to as the NUF
exam) within the previous five (5) years.
Junior Technicians and Task Only
Technicians who were qualified to perform junior level tasks prior to 2018 without
completing the NUF exam will continue to be qualified to perform the equivalent
CIRP Tasks with the following restrictions:
·
The junior fundamentals course must be
successfully completed by the end of 2018.
·
Additional CIRP Task qualifications may not be
granted until the junior fundamentals course has been successfully completed.
The current requirement for Senior Technicians to
complete the fundamentals training described by Reference 5.6 (NUF exam) every
five (5) years will be suspended beginning in January 2018. Instead, annual continuing training courses
will include refresher training on fundamentals at the discretion of the ITOC.
Who may
administer the EPRI STE process?
Beginning in January 2018, suppliers and utilities may
use the EPRI STE process described by Reference 5.4 to qualify technicians to
perform CIRP Tasks. To use the STE
process, a supplier must be deemed by the EPRI STE Steering Committee to be AP3
compliant; the supplier’s program must contain the attributes described in
Reference 5.2. Required attributes are
specified for workers, evaluators, the evaluation site, evaluation
administration, and program improvements.
EPRI member utility programs accredited by the National Academy for
Nuclear Training may also administer an STE.
EPRI membership is required to access the knowledge examinations and
performance evaluations maintained on the EPRI website. Member utilities and AP3 compliant suppliers
are required to submit records to EPRI for update of the EPRI Task
Qualification/Completion Registry (TQR).
How will
training equivalency be evaluated?
Credit may be given for training provided by entities
external to the US nuclear power industry such as a vocational college, the
Department of Energy, or a foreign utility.
Attachment 4 may be used by suppliers to document the basis for
equivalency in crediting a course or performance evaluation required for a CIRP
Task qualification. Utilities may document equivalency using
site-specific procedures. Additional
requirements and restrictions for granting an equivalency include the
following:
· To successfully complete an STE, both
the knowledge exam and the performance evaluation must be completed using the
EPRI process. An equivalency may not be
applied to satisfy either part of an STE.
· The ITOC shall approve, by name,
supplier employees who may perform an equivalency evaluation.
· Equivalency evaluations performed by a
supplier must be approved by the ITOC.
How will
CIRP Task qualifications be tracked?
PADS will continue to be used as the master database to
show qualifications of supplemental technicians. A PADS
Transition Plan is provided in Attachment 7 to accomplish the following:
·
Provide
instructions to a utility to input NEI Skills granted by the utility into PADS.
·
Provide
instructions for a utility to set up CIRP Task qualifications in their LMS
based on the equivalence of NEI Skills.
·
When
feasible, establish an automatic interface between the utility Learning
Management System (LMS) and PADS that will ensure both databases reflect the
current qualification status.
Suppliers and utilities that do
not have an automatic LMS/PADS interface may input directly in PADS and use the
PADS reports shown in Attachment 7.
How are
records maintained to support CIRP Task Qualifications?
The organization making a PADS entry
shall retain supporting quality records and make them available on request. Records supporting PADS entries are
maintained as follows:
·
Utilities maintain records per utility
procedures.
·
NANTeL provides an electronic record for completion
of fundamentals exams.
·
NANTeL provides an electronic record for
completion of continuing training courses and required exams.
·
The EPRI TQR provides an electronic record for
completing STE knowledge exams and performance evaluations.
·
Suppliers retain resumes and equivalency evaluations
using Attachment 4.
·
Suppliers retain attendance sheets for
continuing training by methods other than NANTeL.
How will
continuing training be administered?
Continuing training will be provided to maintain the
knowledge and skills required to implement the NISPs. The content of continuing training will be
the same for both Senior and Junior Technicians. Required exams require a passing grade of
80%. Continuing training for 2018 is
scheduled to begin in December 2017 and will consist of the gap training to
implement the NISPs. After 2018, minimum
requirements for annual continuing training include:
·
Significant
changes in an NISP.
·
Any
gap training needed due to significant changes in the initial training program.
·
Lessons
learned from significant operating experience as identified by INPO.
·
INPO
focus areas based on weaknesses identified during INPO plant performance
evaluations.
·
Refresher
training for fundamentals/systems as determined by the ITOC.
·
Annual
continuing training should not exceed 16 hours per year of discipline specific
training.
Delivery of continuing training will be accomplished
using computer based training (CBT) to the maximum extent reasonable. If a portion of the continuing training
cannot be delivered using CBT, the ITOC is responsible for determining how the training
will be delivered.
Continuing training does not include refresher training
for infrequent, important, and complex tasks due to the large population of
supplemental technicians that do not perform such tasks. When such tasks will be performed, the
utility is responsible for determining the pre-job training and/or briefing
that will be required using plant-specific procedures.
How will
industry oversight be established?
The US nuclear power industry has collaborated to develop
and implement the above program through a working group. The working group will transform into the ITOC
to provide a representative cross-section of stakeholders that will monitor and
maintain the effectiveness of the training program.
2.1
Supplier programs to qualify personnel using the
STE process shall be evaluated and approved per Reference 5.2, EPRI Administrative Protocol for Portable
Practicals (AP3) in Standardized Task Evaluations. Reference 5.2 describes the following:
2.1.1
The key attributes that must be satisfied in the
supplier training program.
2.1.2
The process for program submittal and compliance
review.
2.1.3
Requirements for maintaining an approved
program.
2.2
Administration of knowledge examinations and
performance evaluations by suppliers shall conform to the processes described
in Reference 5.4, EPRI Standardized Task
Evaluation Program Implementation Guide.
2.3
Qualification of a supplemental RP technician to
perform a CIRP Task is accomplished by one of the following:
2.3.1
An
EPRI STE for the CIRP Task may be administered by an EPRI AP3 compliant
supplier or through a program accredited by the National Academy for Nuclear
Training.
a.
Knowledge
examinations and performance evaluations on the EPRI website are available only
to utilities and suppliers with an EPRI membership.
2.3.2
An
equivalency is granted using the provisions of sections 3.4.1, 3.4.2, or 3.4.4.
2.4
Enabling objectives to achieve qualification for
performing CIRP Tasks shall include the following:
2.4.1
Applicable topics from ACAD 93-008 listed in
Attachment 1.
2.4.2
Process specific knowledge and skills as
determined through the CIRP Task
Analysis.
2.5
Supplier employees shall be approved by the ITOC
to perform the following:
2.5.1
Review and approve equivalency evaluations.
2.5.2
Evaluate previous experience for applicability
to ANSI requirements.
2.5.3
Evaluate and remediate unacceptable performance.
2.6
Completed courses, CIRP Task qualifications, and
position qualifications shall be entered into the Personnel Access Data System
(PADS) with the following minimum information:
2.6.1
Course Name – The specific course number or
qualification as listed on Attachment 2.
2.6.2
Date Completed – Enter the completion date for the type of data entry
using the following guidance:
a.
STE
Completion: Enter the date when the STE was
completed.
b.
Transfer
of NEI Skills: Enter the date when it
was determined that, for a CIRP Task, the NEI Skills listed in Attachment 3 have
been previously completed. The entry
date for completing gap training will be entered separately.
c.
Completion
of RPFUN1 or RPFUN2: Enter the date when
each course was completed. Completion
dates for the fundamentals training described by Reference 5.6 are already in
PADS.
d.
Equivalency
Evaluation: Enter the date when it was determined
and approved that a CIRP Task qualification has been met through an equivalency
evaluation.
e.
ANSI
18.1 or 3.1 Position Qualifications:
Enter the date when the review was completed per section 3.5 of this
procedure.
2.6.3
Score – PASS or NLQF (No Longer Qualified).
a. A CIRP Task qualification or position qualification
with the code NLQF identifies a suspended qualification due to unacceptable
performance or other reasons.
1) Once
remediation has been completed, the course or position qualification may be
entered with a score of PASS to restore the qualification.
2.6.4
Method – Input PERFORMANCE for the codes on
Attachment 2.
2.6.5
Plant – The PADS plant code or company code for
the facility conducting the training or performing the review.
2.7
Refer to NEI 03-05 (Reference 5.8) for
additional data entry instructions as needed.
2.8
During 2020 and 2021, if a Junior or Senior Technician
has failed to complete an annual continuing training course provided since
2019, remediation shall be performed as follows:
2.8.1
Complete the CBT courses that were missed.
2.8.2
For non-CBT courses, ensure the senior
technician can perform consistent with the enabling objectives through
performance evaluation, observation, oral boards, etc. Document the equivalency evaluation using
Attachment 4 (suppliers only) or site-specific procedures for equivalency
evaluations (utility only).
2.9
Beginning in 2022, if a Junior or Senior
Technician has failed to complete annual continuing training courses provided
during the previous three (3) calendar years, task qualification must be
accomplished using the STE process described in this procedure.
2.10
Records to support PADS entries are maintained
as follows:
2.10.1
Utilities retain records per site-specific
procedures.
2.10.2
NANTeL maintains electronic records to show
individual completion of RP fundamentals knowledge exams using NANTeL.
2.10.3
EPRI maintains an electronic record showing
successful completion of an STE knowledge exam in the EPRI Task
Qualification/Completion Registry (TQR).
2.10.4
EPRI maintains an electronic record to show
individual completion of an STE performance evaluation in the EPRI TQR per EPRI
policy.
2.10.5
The utility or supplier administering an STE is
responsible for updating PADS and providing EPRI with the documents required
for update of the TQR.
2.10.6
Suppliers maintain records of equivalency
evaluations and resumes to support ANSI qualifications indefinitely or until disposal
is authorized by the ITOC.
2.10.7
NANTeL maintains electronic records to show
individual completion of continuing training, include completion of required
exams.
2.10.8
Suppliers maintain attendance records for
continuing training that is not delivered using NANTeL.
The following
illustration lists the major process elements in this procedure that implement a
systems approach to training.
1.1
Industry Training Oversight Committee (ITOC)
Performer |
Action |
INPO |
1.1.1
Coordinate with the industry to assign an ITOC
Chair. |
ITOC Chair |
1.1.2
Coordinate with the industry to select members
to the ITOC as follows: a. ITOC
Chair (voting member). b. Two
corporate RPMs (voting members). c. Two
trainers responsible for RP training programs (voting members). d. Two
site RPMs (voting members). e. A
representative from each AP3
compliant supplier administering STEs (voting members). f. INPO
representative (non-voting member). g. EPRI
representative (non-voting member). 1.1.3
Select members to achieve a representative
cross-section of the industry. 1.1.4
Ensure ITOC meetings maintain the minimum
quorum as stated above for issues requiring a vote. A majority vote is required for approval of
actions and decisions. |
ITOC |
1.1.5
Review the effectiveness in implementing this
procedure at least annually and coordinate improvement actions that may be
identified. 1.1.6
Provide routine oversight of the training
program to ensure the following: a. Inclusion
of training topics from ACAD 93-008 that provide the knowledge and skills
necessary to perform the tasks included in portable qualifications. b. The
use of web based training courses to the extent practicable. c. An
effective interface between PADS and site LMS programs to track and update CIRP Task qualifications. d. Identification
of training needs to implement new or revised NISPs. e. Implementation
of a performance monitoring program to identify potential improvements needed
in training. f. Identification
of training needs based on performance monitoring and recent operating
experience. g. Implementation
of training needs identified during ITOC reviews. 1.1.7
Review the applicable topics listed in
Attachment 1 every 3 to 5 years to ensure training requirements meet the
industry’s needs. a. Revise
this NISP as required to maintain Attachment 1 current. 1.1.8
Conduct meetings as needed to determine
continuing training requirements (reference step 3.8.1). |
1.2
Knowledge Exams for Initial Training
Performer |
Action |
|
Proctor |
1.2.1
Administer RP Theory Fundamentals exams (FPFUN1
and RPFUN2) using NANTeL. a. Update
PADS for successful exam completion either directly or through interface with
an updated LMS and automatic interface. |
|
|
|
|
|
NOTE SAT products from the
EPRI website are not available to non-EPRI members and may not be used to
administer an STE. |
|
|
1.2.2
Administer STE knowledge exams per Reference
5.4 using the EPRI website or administer manually as described below. 1.2.3
If an STE knowledge exam is to be administered
manually, then take the following steps: a. Download
the STE knowledge exam from the EPRI website. b. Administer
the knowledge exam in accordance with the instructions on the knowledge exam
and the site training procedures. 1.2.4
Forward the completion form to the EPRI/PADS
Point of Contact established by the site or supplier. |
|
EPRI/PADS Point of Contact |
1.2.5
If
all requirements have been satisfied to complete a CIRP Task qualification,
update PADS directly or through interface with a site Learning Management
System (LMS). 1.2.6
For
manual exams, forward the cover sheet to the EPRI STE Coordinator for
retention. |
|
EPRI STE Coordinator |
1.2.7
Update the EPRI Task Qualification/Completion
Registry (TQR) upon receipt of
an exam cover sheet. |
|
1.3
Performance Evaluations for Initial Training
Performer |
Action |
|
|
NOTE SAT
products from the EPRI website are not available to non-EPRI members and may
not be used to administer an STE. |
|
|
|
|
Evaluator |
1.3.1
Obtain
the performance evaluation document by downloading the STE document from the
EPRI website per Reference 5.4. 1.3.2
Evaluate
each performance objective by having the trainee perform or simulate the
steps required to accomplish each objective. a.
Perform
requires actual performance of the steps using the necessary processes,
tools, and equipment. b.
Steps
may be performed in a non-radiological environment if the following criteria
are met: 1)
Wireless
technology is used for dynamic measurements, e.g. radiation levels change
based on the surveyor’s location or radiation levels change due to
progression through a scenario. 2)
Cues
are used only for static measurements, e.g. a frisker reading on a smear or
the amount of radioactivity on an air sample. 3)
Simulator
training plans are used to set up the simulated environment, direct changes
in wireless parameters based on the scenario presented, specify the exact
cues that may be provided, and specify when the cues may be provided. c.
If
the performance objective cannot be reasonably performed, the objective may
be simulated. 1)
Simulation
requires the trainee to perform the steps in a representative manner using
similar processes, tools, and equipment. 1.3.3
If
the trainee successfully demonstrates all of the performance objectives, complete
the documentation as instructed by the STE and send the completed
documentation to the EPRI/PADS Point of Contact established by the site or
supplier. |
|
EPRI/PADS Point of Contact |
1.3.4
If
all requirements have been satisfied to complete a CIRP Task qualification,
update PADS directly or through interface with a site Learning Management
System (LMS). 1.3.5
Forward
the completed cover sheet to the EPRI STE Coordinator. |
|
EPRI STE Coordinator |
1.3.6
Update the EPRI Task Qualification/Completion
Registry (TQR). |
|
1.4
Equivalency Evaluations
Performer |
Action |
Utilities |
1.4.1
Credit the following qualifications and courses
as being equivalent to the CIRP
Task qualification requirements in Attachment 1. a. RP
Fundamentals (PADS Codes 2023 & 5261) meet the requirement for both of
the following: 1) RP
Theory Fundamentals for Junior Task Qualifications. 2) RP
Theory Fundamentals for Senior Task Qualifications. b.
NEI Skills from NEI 03-04 (Reference 5.6) meet
the requirements for CIRP Task
qualifications as listed in Attachment 3. 1.4.2
Use site-specific procedures to evaluate and credit
site courses and Task
Performance Evaluations that accomplish the enabling objectives for all or
portions of the following: a.
RP
Theory Fundamentals for Junior Task Qualifications. b.
RP
Theory Fundamentals for Senior Task Qualifications. c.
CIRP
Task Analysis. d.
RP
Continuing Training for the current year. 1.4.3
Update PADS directly or through interface with
the site LMS to add qualifications granted by an equivalency evaluation. a. The
PADS database will reflect that the utility providing the update maintains
the records supporting the qualification. b. The
date for completing the equivalency evaluation will be the PADS completion
date for the course or qualification. |
Suppliers |
1.4.4
Use Attachment 4 to evaluate and credit
courses and qualifications that meet the enabling objectives for the courses
and qualifications listed in Attachment 1.
a. Retain
Attachment 4 as a record until the technician is no longer available to work
as a supplemental RP technician. b. The
date for completing the equivalency evaluation will be the PADS completion
date for the course or qualification. c. Ensure
equivalency evaluations are reviewed and approved only by individuals who
have been authorized by the ITOC as documented in ITOC meeting minutes. |
1.5
Position Qualifications
Performer |
Action |
|
Utilities & Suppliers |
1.5.1
Use
Attachment 5 to evaluate previous experience for comparison to ANSI
requirements. a.
ANSI
18.1 requirements are met if the experience evaluation shows two or more
years of experience (4,000 hours) can be credited toward ANSI qualifications. b.
ANSI
3.1 requirements are met if the experience evaluation shows three or more
years (6,000 hours) of experience can be credited toward ANSI qualifications. 1)
Related
technical training may be substituted as experience for ANSI 3.1
qualifications based on 40 hours per week, not to exceed 2,000 hours. c.
Completion
of Attachment 5 is not required if a technician’s resume shows ANSI requirements
have been solely met by experience as a Junior or Senior RP technician at a
nuclear power plant providing radiological surveillance and control of areas
and work. 1.5.2
Ensure
only designated approval authorities as listed below review and approve a
completed Attachment 5. a.
A
site RPM or designated approval authority. b.
A
supplier employee approved by the ITOC. 1.5.3
Ensure
the PADS database reflects the position experience levels as follows: a.
Input
complete for PADS code AN18.1 if ANSI 18.1 experience requirements are met. b.
Input
complete for PADS code AN3.1 if ANSI 3.1 experience requirements are met. c.
Input
complete for PADS code JRTECH when the Junior Technician position
qualification has been attained or when an evaluation has determined that the
prerequisites have been met. d.
Retain
the resume on file as the record holder for the experience evaluation until
the individual is no longer available to work as a supplemental RP
technician. |
|
|
1.5.4
If
a technician was previously determined to meet ANSI qualifications using
plant-specific criteria prior to January 1, 2018 and does not meet the
standard criteria in Attachment 5 on January 1, 2018, the plant awarding the
ANSI qualification may enter the individual in PADS as ANSI qualified. |
|
1.6
Unacceptable Performance
Action |
|
Site
RPM or Supplier |
1.6.1
If an RP technician does not perform a CIRP
Task at an acceptable level, suspend qualifications for performing the
applicable task(s). a.
Unacceptable
performance is defined as an incident when a technician’s performance
requires CIRP Task qualifications to be suspended as determined by the site
RPM. b. Ensure
both the site RPM and the technician’s management is aware of the
circumstances related to the unacceptable performance. |
Supplier
|
1.6.2
Assign a Supplier Issue Owner for each case
involving the evaluation and/or remediation of unacceptable performance. a. Ensure
the Supplier Issue Owner has been approved by the ITOC to evaluate technician
performance issues. b. Ensure
approval is documented in ITOC meeting minutes. |
Supplier
Site Manager |
1.6.3
Upon notification of unacceptable performance,
promptly take the following actions: a. Communicate
the issue through the supplier’s chain of command. b. Ensure
the issue is entered in the supplier’s corrective action program. 1) Update
the supplier’s corrective action program as site management completes any
related investigations to ensure the supplier’s management has archived
reference to site investigations. c. Interview
the technician to investigate potential causes, including potential knowledge
or skill weaknesses. 1) Ensure
interviews are documented and entered in the supplier’s corrective action
program. d. If
the technician is released from the site without remediation, notify the Supplier
Issue Owner to ensure the affected CIRP Task qualifications are
suspended in PADS. 1) Enter
suspension of PADS qualifications as an assigned action in the supplier’s
corrective action program to document completion. 2) Suspend
a qualification by entering NLQF as the input for the score as described in
section 2.6.3 of this procedure. e. Contact
the Supplier Issue Owner to determine if additional information or evaluation
is needed. |
Supplier
Issue Owner |
1.6.4
Inform the EPRI STE Coordinator that
unacceptable performance of an STE has occurred. 1.6.5
If remediation can be reasonably achieved, determine
the remediation actions required to reinstate the affected qualifications. a. Consult
with the site RPM to ensure remediation actions are mutually acceptable. b. Document
the required remediation actions in the supplier’s corrective action program
along with concurrence by the site RPM. c.
Provide
a copy of the final remediation plan to the site RPM. 1.6.6
If effective remediation cannot be reasonably
achieved, document the basis for this conclusion in the supplier’s corrective
action program. 1.6.7
Reinstate the technician’s qualifications in
PADS only after all remediation actions have been completed and confidence
has been restored that the technician can perform the STE task with
acceptable performance. a. If
the technician changes employers, the employer desiring reinstatement is
responsible for assigning an Issue Owner to oversee remediation. 1)
Obtain
a copy of the remediation plan from the RPM at the site where unacceptable
performance was identified. b. Document
successful completion of remediation actions in the employer’s corrective
action program with supporting objective evidence. 1.6.8
Update PADS to indicate that remediation has
been completed and records for the remediation are available from the
employer for review as needed. |
Each
Supplier |
1.6.9
Provide a report to the ITOC Chair by May 1 of
each year describing each occurrence of unacceptable performance and related
corrective actions over the previous 12 months. |
1.7
Training Feedback
Performer |
Action |
Each
Supplier |
1.7.1
Designate an individual responsible for
collecting training feedback. a. Training
feedback on training effectiveness may be received by trainees, observers,
and instructors. Examples include: 1) Course
reviews. 2) Critiques
of exam questions. 3) Effectiveness
of performance evaluations. 4) Weaknesses
in trainee performance. 5) Strengths
and weaknesses in facilities, training materials, and logistics. |
Instructors |
1.7.2
Ensure trainees understand that training
feedback is valued and to submit feedback using Attachment 6 or an email. a. Provide
the name of the individual designated to collect feedback and ask that
feedback be provided to this person directly, or b. Collect
feedback and forward it to the designated individual. |
Each
Supplier |
1.7.3
Provide a summary report, from feedback over
the previous 12 months, to the ITOC Chair by May 1 of each year describing
the training feedback that was received and any recommendations for changing
the training program and/or NISPs. |
1.8
Continuing Training
NOTE:
Required
continuing training for 2018 will consist of the gap training required to transition
NEI Skills to CIRP Task qualifications based on implementing the NISPs in
January 2018.
Performer |
Action |
ITOC
Chair |
1.8.1
At least once per calendar year, normally during
May, conduct an ITOC meeting to review performance and feedback from the previous
12 months in accordance with section 3.1. |
ITOC |
1.8.2
Conduct
an annual performance review using the following information: a.
New
or revised NISPs. b.
Cases
of unacceptable performance. c.
Training
feedback. d.
Recent
operating experience documented in INPO Industry Event Reviews (IER). e.
INPO
RP focus areas. 1.8.3
Based
on the annual performance review, coordinate development of a CBT course to
address the following: a.
NISP
changes that need to be communicated to supplemental technicians. b.
Changes
in the knowledge and skill requirements to achieve a CIRP Task qualification. c.
Lessons
learned identified from significant operating experience that need to be
understood and applied by supplemental technicians. d.
Behaviors
needed to address INPO RP focus areas. e.
Refresher
training on fundamentals as needed to address apparent weaknesses from the
above review. 1.8.4
Coordinate
the use of NANTeL to distribute the continuing training CBT to maximize the
use of remote learning and the flexibility for technicians to complete the
training based on personal schedules. a.
Each
supplier will assign the CBT to the junior and senior technicians who have
worked for the supplier during the previous 18 months. 1.8.5
If
completion of a CBT itself is not sufficient to accomplish the enabling
objectives for continuing training, determine the following as applicable: a.
Subjects
and durations of classroom or laboratory training. b.
Enabling
objectives to be evaluated by a proctored exam and the expected completion
time. c.
Enabling
objectives to be evaluated by a performance evaluation or dynamic learning
activity and expected completion times. d.
The
facilities, equipment, and instructors required for delivery of the training. e.
Division
of responsibilities between utilities and suppliers for delivery of the
training. 1.8.6
Coordinate
implementation of training not accomplished through a CBT as follows: a.
Assign
members of the IITOC to coordinate development of the training materials and
establish a schedule for completion. b.
Determine
the locations that will be used for delivery and assign ITOC members to
coordinate the preparation of facilities, equipment, and instructors for
delivery of the training. 1.8.7
Coordinate
revisions of the fundamentals courses and/or SAT products on the EPRI website
as needed to address the training gaps identified during the annual
performance review. 1.8.8
Ensure
continuing training courses have been reviewed and approved, prior to
delivery, by an instructor qualified through an accredited training program. |
Suppliers |
1.8.9
Coordinate the delivery of the continuing
training over the time schedule specified by the ITOC. a. Continuing
training must be completed during the calendar year to maintain Senior
Technician and Junior Technician position qualifications and qualifications
to perform senior level CIRP Tasks. 1) Technicians
must complete annual continuing training beginning with the calendar year
when the Junior Technician position qualification is attained. 2) The
2018 continuing training course consisting of the initial gap training must
be completed prior to being granted CIRP Task qualifications. |
Utilities |
1.8.10 Prior
to each outage, identify outage activities that will be performed by
supplemental personnel that may require just-in-time training due to the
infrequent, complex nature of the task. a. Provide
the just-in-time training to the personnel who will be responsible for
performing the tasks. |
2.0
Clarifying Notes
None
3.1
Supplemental Personnel Process Description, INPO
AP-930, Revision 3, September 2016
3.2
Plant Support Engineering: Administration Protocol
for Portable Practicals (AP3) in Standardized Task Evaluations, EPRI Technical
Report 1021072, November 2010
3.3
Guidelines for Training and Qualification of
Radiological Protection Technicians, Revision 1, ACAD 93-008, March 2016
3.4
EPRI Standardized Task Evaluation Program
Implementation Guide, Revision 1, EPRI Technical Report 3002006470, July 2015
3.5
Acceptable Experience and Training for HP
Technicians at Nuclear Power Plants, Radiation Protection Management, Volume 5,
No. 5 (Sep/Oct 1988), pp. 70-74
3.6
Guideline for Plant Access and Other
Standardized Shared Training Courses and Evaluations, NEI 03-04, Revision 9, October
2016
3.7
Radiological Protection Processes, INPO 17-002
3.8
NEI 03-05, Personnel Access Data System
Operating Manual
3.9
NEI System Administrator Bulletin
2017-08—Addition of Radiation Protection Technician Skill/Certification
Reports, October 16, 2017
4.1
Revised section 1.1 to use the term Common
Industry RP Tasks (CIRP Task) instead of Standardized Task Evaluation
(STE). This was done because the STE
process is a specific EPRI training process to achieve task qualification. Equivalent training from other entities is
not recognized by the EPRI STE process.
This change is reflected throughout the procedure.
4.2
Revised section 1.2 to provide a narrative
description of the overall program.
Significant changes include the following:
4.2.1
The use of sub-headings to aid reading and
comprehension.
4.2.2
Additional clarification on position
qualifications.
4.2.3
The 2018 continuing training course for NISP gap
training must be completed to attain any CIRP Task qualification.
4.2.4
Junior Technicians will be required to complete
continuing training.
4.2.5
Increased the time allowed to transfer NEI
Skills qualifications to CIRP Task qualifications using Attachment 3.
4.3
Added section 2.8 and 2.9 to address
requirements when a technician has not completed annual continuing training
during a previous year.
4.4
Added section 2.10 to specify records retention.
4.5
Revised section 3.2.1 to remove the statement
that NANTeL automatically updates PADS.
PADS may be updated directly or through automatic interface with a
utility LMS.
4.6
Added notes in 3.2 and 3.3 to state that
non-EPRI members may not administer an STE.
4.7
Revised 3.5.1.c to clarify the type of
experience that does not require completion of Attachment 5.
4.8
Added section 3.5.4 to clarify that the industry
standard criteria for evaluating experience for ANSI qualification does not
negate prior evaluations using plant-specific procedures.
4.9
Revised section 3.6.1 to specify that a supplier
or a site RPM may suspend a qualification due to unacceptable performance.
4.10 Revised
section 3.6.1 to define unacceptable performance.
4.11 Revised
sections 3.6.5 and 3.6.7 to address how remediation will be performed if a
technician changes employers before being remediated for unacceptable
performance.
4.12 Revised
3.7.1 to list examples of training feedback.
4.13 Revised
section 3.8 to provide additional guidance for the development and delivery of
continuing training as related to the following:
4.13.1 Gap
training to implement the NISPs in January 2018 satisfies continuing training
requirements for 2018.
4.13.2 Consideration
of refresher training for fundamentals in continuing training.
4.13.3 The
use of NANTeL for continuing training.
4.13.4 Responsibilities
of the ITOC to determine the methods for delivery if CBT is not a suitable.
4.13.5 Requirements
for junior technicians to complete continuing training.
4.13.6 Review
and approval by an instructor qualified through an accredited program.
4.14 Deleted
three ACAD objectives in Attachment 1 for the RP Theory for Fundamentals for
Junior Task Qualifications. Deleted ACAD
objectives were:
4.14.1 Read
and zero self-reading dosimeters.
4.14.2 Describe
when a planned special exposure is allowed and the detailed requirements of the
planned special exposure.
4.14.3 Explain
the use of effective dose equivalent monitoring, including weighting factors
and limitations in the process.
4.15 Revised
section 2.7.1 in Attachment 1 to limit RP2.06 to perform only the following
activities:
4.15.1 Respond
to a Contamination Alarm.
4.15.2 Determine
the Contamination Hazard.
4.16 Added
section 2.7.3 in Attachment 1 for RP2.06 to require completion of RP2.01 and
RP2.02.
4.17 Revised
section 3.4 in Attachment 1 to include the following for RP3.06:
4.17.1 Personnel
Decontamination.
4.17.2 Dose
Assessment and Documentation
4.17.3 Reference
to required ACAD topics included in RP2.06.
4.18 Revised
STE RP3.05 in Attachments 1, 2, and 3 to remove the reference to a Very High
Radiation Area.
4.19 Section
3.5.3 and Attachment 2 were revised to include PADS Code JRTECH to archive the date when the Junior Technician
Position Qualification was attained or when prerequisites were determined to be
satisfied.
4.20 Revised
Attachment 3 to delete the requirement for NEI RPT Skill RPT009 to be granted
equivalency for RP2.05 since a junior technician is not qualified to
independently perform high risk radiological job coverage.
4.21 Revised
Attachment 5 as follows:
4.21.1 Increase
the maximum allowable credit towards ANSI 3.1 to 2,000 hours for Navy ELT
experience (non-overhaul).
4.21.2 Replace
the term “job coverage” with “radiological surveillance and control” to be more
descriptive of the experience required.
4.22 Added
Attachment 7 to include the PADS Transition Plan that is used to establish the
new CIRP Tasks in PADS and the methodology to transition from previously used
NEI Skills.
4.23 Revised
Attachment 7 to include an action to evaluate
lessons learned in using PADS during the first six months of 2018 to identify
changes needed to improve qualification tracking and submit an ECN to drive the
changes and needed schedule.
Attachment 1:
Training Program Description
This attachment
describes the content of the training program as related to the applicable
topics listed in ACAD 93-008, Guidelines
for Training and Qualification of Radiological Protection Technicians. Applicable
ACAD topics are trained in the various CIRP Task training modules and the two
fundamentals courses.
Knowledge and skill requirements to implement the
NISP processes that may not be accurately described in the ACAD have been determined through task
analysis. Refer to the applicable task
analysis on the EPRI STE website for a complete description of
knowledge, skills, cognitive enabling objectives, and performance enabling
objectives.
The ITOC ensures this attachment
is maintained consistent with the content of the training program by:
·
Oversight of any changes to ensure this
attachment lists the ACAD knowledge and skills required by supplemental RP
technicians.
·
Reviewing proposed changes to ensure training
needs will meet the needs of the industry.
·
Reviewing this attachment every 3 to 5 years to
ensure applicable ACAD topics are incorporated in this attachment, fundamentals
courses, and STE documents.
1.0 Entry
Level Requirements
Entry level candidates must have a high school
or equivalent education and the basic mathematical skills as listed in ACAD
93-008 to begin the training program.
Knowledge and skills must enable the following:
·
Use arithmetical functions, fractions, decimals,
percentages, square roots, averages, and significant figures.
·
Convert, multiply, and divide numbers using
scientific notation.
·
Apply dimensional analysis to add or equate
physical quantities using common units.
·
Solve basic algebraic equations.
·
Apply basic geometric principles in calculating
area and volume.
·
Use graphs and control charts to plot
information and obtain information using both rectangular and logarithmic
coordinates.
·
Use exponents and logarithms
·
Use basic units such as temperature, pressure,
flow, volume, mass, weight, distance, and time.
2.0 Junior
Technician Training Program
2.1
RP Theory Fundamentals for Junior Task
Qualifications
This fundamentals course provides a trainee
with the common background knowledge essential for completing the junior level CIRP Task qualifications. Applicable topics from ACAD 93-008 include:
·
Atomic structure including atomic mass units,
protons, neutrons, electrons, isotopes, mass-energy equivalence, mass defect,
binding energy, and binding energy per nucleon.
·
Nuclear interactions and reactions including
radioactive decay, half-life determination, and isotope identification.
·
Fission process and effects from neutron
leakage.
·
Sources and magnitudes of residual heat and
decay heat.
·
Basic characteristics of BWRs and PWRs,
including fission product barriers.
·
Chemistry fundamentals including the structure of
molecules, principles for ion exchange, and the use of the periodic table.
·
Identify the types of radioactive decay.
·
Describe
each type of decay using basic equations.
·
Perform
radioactive decay calculations using exponential equations and
appropriate graphs.
·
Characterize
alpha particles, beta particles, gamma rays and neutrons.
·
Describe
the process of neutron activation using basic equations.
·
Identify specific isotopes of concern in power reactors during operation and following shutdown.
·
Discuss complex decay schemes, such as natural decay chains, reactor-produced
decay chain, and equilibrium isotopes.
·
Identify and use
radiological quantities and
their units including activity (curies
and becquerels), exposure
(roentgens), dose (rads and
grays), and dose equivalent (rems and sieverts).
·
Identify and
use significant dose terms
including deep dose equivalent, eye (lens) dose equivalent,
shallow dose equivalent,
effective dose equivalent, committed dose equivalent, committed effective dose equivalent,
total effective dose equivalent,
and total organ dose equivalent.
·
Equate radioactivity to dose rate through simple
rules of thumb and associated
calculation for various source geometries.
·
Describe
major sources of natural background
radiation including cosmic radiation, uranium and thorium decay chains,
potassium 40, and radon gas (including daughter products).
·
Describe man-made sources of background
radiation including medical diagnostic x-rays, radio pharmaceuticals, consumer
products (TV, smoke detectors, luminous dials), weapons tests, and air travel.
·
Describe potential sources of exposure to
the public
from a plant including liquid and gaseous effluent releases, transportation of radioactive materials,
and major accidents.
·
Describe major sources of radiation in
a plant contributing to
worker exposures including primary system
piping and components, inside containment
during power operation,
primary system filters and demineralizers, radwaste
process systems, and radiography.
·
Describe the processes and characteristics of
neutron interaction with matter including elastic scattering, inelastic
scattering, absorption, neutron activation, and fission.
·
Describe how neutron energy affects the
probability of interaction.
·
Based on knowledge of interaction mechanics,
select the types of materials for shielding each type of radiation.
·
Define buildup factor.
·
Perform gamma and neutron shielding calculations
using the exponential shielding equation, half and tenth thickness values, and
empirically derived graphs.
·
Identify common shielding practices for beta
particles and neutrons.
·
Describe the phenomenon of "sky shine"
and the means by which it can be minimized.
·
Apply quality factors for converting dose to
dose equivalent.
·
Describe the mechanisms of radiation interactions
with cells.
·
Identify cell characteristics that affect
radiosensitivity.
·
Define stochastic and non-stochastic effects.
·
Explain the difference between acute and chronic
radiation exposure, and for each, describe the somatic effects, genetic effects,
and teratogenic effects.
·
For acute exposures, describe the dose response
relationship, acute radiation syndrome, LD-50/30, and LD-50/60.
·
For chronic exposures, describe long-term health
effects, quantitative risk assessment, and comparison of radiation exposure
risks to other health risks.
·
Describe the potential health effects and risks
due to exposure to internally deposited radioactivity.
·
Describe situations in which the risk due to
exposure to internally deposited radioactivity would be lower than the increased
risks resulting from using respiratory protection equipment.
·
Describe the studies used to determine
qualitative health risks.
·
Discuss the basis for and implications of the
linear zero-threshold dose-response curve.
·
Discuss the concept of "effective dose
equivalent" and how it applies to planning work in contaminated areas and
radiation fields.
·
Discuss why radiation exposures to both
individuals and groups of workers should be kept ALARA.
·
Discuss the risk to the general public from
operation of a nuclear plant, and compare it to other risks accepted in
everyday life.
·
Discuss the risk to a declared pregnant worker
and fetus.
·
Discuss the philosophy of radiation
protection limits for prevention
of non-stochastic effects, minimization of stochastic effects, concept of "acceptable risk"
or "comparable risk,” and concepts
of "cost versus benefit" and ALARA.
·
Describe practices for complying with 10 CFR 20,
"Standards for Protection Against Radiation" and 10 CFR 37, “Physical
Protection of Category 1 and Category 2 Quantities of Radioactive Material.”
·
Describe the principles of operation and
characteristics of the types of dosimetry used at a plant, including the
range(s) of each device, advantages of each type of device, limitations of each
type of device, and radio frequency interference.
·
Describe the types of dosimetry required for
various work situations such as entry into the restricted area, entry into the
radiologically controlled area, entry into posted radiation areas,
high-radiation areas, or very-high-radiation areas, visitors, entry into areas
with neutron radiation, entry into areas of non-uniform radiation fields, planned
special exposures, and specialty jobs (for example, use of isotopic or pulsed
x-ray radiography).
·
Describe the methods and equipment used at a
plant to determine doses from various types of radiation including gamma
whole-body dose, gamma extremity dose, beta skin dose, neutron dose, and lens
of eye dose.
·
Demonstrate the proper method for wearing
dosimetry under various conditions, including determining the proper location
of dosimetry.
·
Describe typical criteria for performance of
investigations of discrepancies in dosimetry readings.
·
Explain actions to take in the event of abnormal
situations, such as lost, damaged, alarming and off-scale high
dosimetry, exposure in excess of plant administrative limits or nuclear
regulatory limits, and significant differences among multiple dosimeter
readings
·
Describe a typical exposure tracking system.
·
Define annual limit on intake, derived air
concentration, weighting factors, and solubility class.
·
Explain how annual limit on intake, committed
dose equivalent, committed effective dose equivalent, and the target organ
relate to the appropriate derived air concentration.
·
Locate derived air concentration values and
calculate derived air concentration hours for practical situations involving
exposure of individuals to airborne radioactivity.
·
Define biological half-life and effective
half-life.
·
Describe requirements for monitoring and reporting
internal exposure.
·
State the purpose of having plant administrative
limits for radiation exposure.
·
Explain the differences between general area
dose rate and contact dose rate and how each is used in controlling exposures.
·
Describe source-reduction techniques that can be
used to reduce workers' radiation exposures including decontamination of major
system components, flushing of hot spots, sequencing of work so high-dose-rate
items are removed from the work area early on, reduction of cobalt in system components,
enhanced filtration of reactor coolant, early boration (PWR), hydrogen peroxide
(PWR), lithium control (PWR), activated nickel sampling (PWR), soft shutdown
(BWR), use of specialty resins, zinc injection, and elemental cobalt sampling.
·
Describe the components that contribute to
cobalt inventory in the reactor coolant.
·
Explain the difference between loose and fixed
contamination.
·
Discuss the reason for having lower limits for
alpha contamination.
·
Identify potential sources of radioactive
contamination, including work operations that can generate contamination.
·
Define cross-contamination, and describe how it
can result in the uncontrolled spread of contamination.
·
Describe techniques used to prevent the spread
of contamination when bringing contaminated materials out of posted areas.
·
Describe the purpose and use of single and
multiple step-off pads in controlling the spread of contamination.
·
Discuss the typical requirements for workers
entering and working in areas with contamination above plant limits, such as a radiation work permit, protective
clothing, use of tools from "hot tool room," step-off pad,
notification of the Radiological Protection Department.
·
Identify the isotopes of primary concern for
airborne radioactivity at a plant.
·
Explain the characteristic difference between
particulate, iodine, tritium, and noble gases and how they affect the method of
detecting and controlling airborne radioactivity.
·
Explain the purpose of using radiation work
permits (RWPs).
·
Identify typical requirements for the use of
RWPs.
·
Describe typical procedures for requesting,
initiating, completing, modifying, approving and terminating an RWP.
·
Explain the difference between
"standing" and job-specific RWPs and when each is used.
·
Identify the information that should be included
on RWPs, such as the scope of work covered by the RWP, radiation, contamination and airborne radioactivity
levels, internal and external dose action levels, personnel authorized to use
the RWP, dosimetry requirements, respiratory protection requirements,
protective clothing requirements, the period during which the RWP is valid,
radiological protection coverage and notification requirements, and special
precautions, restrictions or
limitations.
·
Describe the administrative process of logging
in on an RWP.
·
Explain the purpose of having each worker read
and log in on the RWP.
·
Identify isotopes expected to be present in the
event of a radiological incident.
·
Identify radiological surveys that should be
taken as a result of an incident and the purpose of each.
·
Describe the procedure for documenting
radiological incidents such as a condition report or personnel contamination
reports.
·
Describe the types of incidents required to be
documented.
·
Explain the differences between fixed and loose
surface contamination and the resulting differences in techniques used for
decontamination.
·
Describe why some areas of a plant may not be
decontaminated (for example, high- radiation areas and inaccessible overhead
areas).
·
Identify and explain the techniques for reducing
the volume of radioactive solid waste generated, such as minimizing the amount
of material entering the radiologically controlled area, decontaminating,
segregating non-radioactive waste, reusing cloth rags, shoe covers, bags and
protective clothing, wrapping clean equipment to prevent its contamination,
compacting, using a "hot tool room," removing packing materials outside
the radiologically controlled area.
·
Basic function and structure of different valve
types, pumps and seals, valve actuators, and valve packing.
2.2
STE RP2.01 – Operate Portable Radiological
Survey Instruments
2.2.1 This CIRP Task enables a trainee to
perform the following activities per NISP-RP-01, Portable Survey Instruments:
·
Perform Pre-Use Instrument Inspections and
Checks
·
Operate an Ion Chamber Instrument
·
Operate a GM Survey Instrument
·
Operate a Count Rate Meter with a GM Frisker
Probe
·
Operate a Count Rate Meter with an Alpha, Beta,
or Dual Scintillation Probe
·
Operate a Neutron Rem-Meter
2.2.2 Applicable
topics from ACAD 93-008 include:
·
Determine the calibration status of instruments.
·
Basic theory of operation and operating
characteristics of GM detectors, scintillation detectors, proportional
counters, ion chambers, and neutron survey instruments.
·
Instrument efficiency, the factors that affect
instrument efficiency, and calculation of instrument efficiency.
·
Effects of background radiation.
·
Differentiation between the operating
characteristics of a radiation field survey instrument and a radioactive
contamination survey instrument.
·
Describe the method and purpose of performing
battery checks, adjusting scales to zero, source checks, response checks, and
background measurements.
·
Describe conditions that might affect survey instrument response including geotropism, atmospheric pressure, high humidity, mixed radiation
fields, radioactive noble gas
atmospheres, extreme temperatures,
off-scale reading, radiofrequency interference,
care and maintenance.
·
Convert meter
indications of contamination detection equipment
to contamination levels in standard units.
·
Select the appropriate instrument for performance
of radiation surveys under various conditions
including expected radiation type(s), expected dose rate, and
environmental conditions.
·
Identify the instruments
typically used to perform contamination surveys including
Geiger-Mueller detectors, proportional
counters, alpha scintillation
detectors, and plastic scintillation detectors.
·
Perform and describe the operational checks
performed on counting equipment including source checks, response checks, and
background measurements.
·
Explain the
effect of background radiation on the ability to detect low levels of contamination.
2.3
STE RP2.02 – Perform Radiation and Contamination
Surveys
2.3.1 This CIRP Task enables a
trainee to perform the following activities per NISP-RP-02, Radiation and Contamination Surveys:
·
Survey Dose Rates in an Area
·
Directly Frisk a Surface
·
Perform a Smear Survey
·
Perform a Large Area Smear Survey
·
Survey for Discrete Radioactive Particles
·
Analyze Smears
·
Respond to Abnormal Survey Results
·
Document a Radiological Survey
2.3.2 Applicable
topics from ACAD 93-008 include:
·
Define "general
area" and "contact" dose rates,
and identify each on survey maps.
·
Specify the background limits for using
contamination survey instruments.
·
Identify unusual conditions
that might affect counting
equipment response including high humidity,
abnormal background, electronic noise, or extreme temperature.
·
Describe
the statistical
nature of radioactive decay as it relates to uncertainties encountered when measuring
radioactivity.
·
Explain the
operating characteristics of counting equipment.
·
Explain the principles of operation and
operating characteristics of area radiation monitors.
·
Describe the
precautions and survey techniques for entering
an area in which radiation levels are unknown.
·
Explain actions that should be taken if surveys
show radiological conditions significantly different from those expected, such
as high contact dose rates, high general area dose rates, unexpected low dose
rates, high beta dose rates, high contamination levels, high airborne
radioactivity, unexpected lack of airborne radioactivity, unexpected alpha
contamination, and unexpected radiological conditions resulting in posting
changes.
·
Describe how to estimate beta and gamma dose
rates from contamination on floor, airborne radioactivity (for example,
particulate, iodine, noble gas or tritium), and pipes or tanks containing
radioactive liquids.
·
Select the appropriate instrument for a survey
and demonstrate proficiency in using it.
·
Discuss actions to be taken if radiation levels
are off-scale.
·
Explain how
to obtain and record dose rates from mixed radiation fields.
·
Demonstrate proper
techniques for surveying an item for contamination
using a hand- held frisker.
·
Demonstrate actions to estimate contamination
levels when contamination survey instruments are off-scale.
·
Describe requirements
for documentation of radiological surveys, including the
use of survey maps, reviewing completed surveys,
retaining records, and
updating area maps and postings.
·
Demonstrate how to use planchets and minimize
contamination of counting equipment.
·
Perform a radiation survey, and describe procedures
for the performance of routine radiation surveys, including frequency of
surveys, instruments to be used, areas to be surveyed, survey techniques, and
documentation of results.
·
Describe the different levels of alpha
contamination, including the associated controls with each level, associated
dose contribution of each level, and beta, gamma and alpha ratios.
·
Perform an area contamination survey, and
describe procedures for performing routine area contamination surveys,
including frequency of surveys, instruments to be used, areas to be surveyed,
survey techniques, and documentation of results.
·
Describe procedures and limitations for
performing special contamination surveys, including radioactive particles on
personnel or equipment, radioactive particles in area, alpha contamination,
small volumes of liquid being removed from the radiologically controlled area,
loose material, such as sand, being removed from the radiologically controlled
area.
2.4
STE RP2.03 – Collect and Evaluate Radiological
Air Samples
2.4.1 This CIRP Task enables a
trainee to perform the following activities per NISP-RP-03, Radiological Air Sampling:
·
Determine the Need for an Air Sample
·
Collect a Particulate and Iodine Air Sample
·
Collect a Noble Gas Sample
·
Operate a Continuous Air Monitor (CAM)
·
Set Up and Operate a Personal Air Sampler
·
Analyze a Particulate Air Sample Filter
2.4.2 Applicable
topics from ACAD 93-008 include:
·
Identify factors
that affect the statistical accuracy of
radioactivity measurements
including count rate, background,
count time, equipment efficiency, sample volume,
sample geometry.
·
Explain how the statistical accuracy of measurements can be improved.
·
Define lower limit of detection (LLD).
·
Explain
the principles of operation and operating characteristics of continuous air monitors,
iodine air monitors, particulate air monitors, and noble gas air monitors.
·
Explain
the principles of operation and the applications for low volume, high volume
and personal air samplers.
·
Identify the types of sampling equipment used
for particulates, tritium, noble gas, and iodine.
·
Identify the types of beakers used for air
sampling, e.g. Marinelli, and explain their use.
·
Demonstrate the application of sample collection
equipment used for particulates, iodine, and noble gas.
·
Demonstrate how to quantify the radioactivity
collected on a sample and differentiate the type of nuclides that are present.
·
Demonstrate the conversion of units to relate
airborne concentrations in standard units and derived air concentrations.
·
Demonstrate operation of low-volume samplers,
high-volume air samplers, and personal air samplers.
·
Collect airborne samples, and describe
procedures for collecting routine airborne radioactivity samples, including
frequency of surveys, types of surveys performed (particulate, iodine, noble
gas, tritium), instruments to be used, areas to be sampled, sampling
techniques, and documentation of results.
·
Describe the procedure for determining the
derived air concentration, derived air concentration hours, and annual limit on
intake for a worker in an airborne radioactivity area.
·
Explain the difference between low-volume,
high-volume and personal air samples, including when each is used.
·
Discuss the purpose of using a continuous air
monitor, and identify situations in which continuous air monitors should be
used.
·
Identify work situations and work practices that
could produce airborne radioactivity, such as leaks from contaminated systems,
opening a contaminated system, working in highly contaminated areas, grinding, cutting
or welding radioactive or contaminated materials.
·
Discuss procedures for conducting in-progress
airborne radioactivity samples, including when samples should be taken, proper
placement of air sampling equipment, the definition of "breathing
zone" and determining the appropriate breathing zone for various work
situations, method of sampling (for example, low-volume, high-volume, personal
or continuous air monitor), type of sampling (for example, particulate, iodine,
noble gas or tritium), and documentation of results.
2.5
STE RP2.04 – Post Low Level Radiological Hazards
2.5.1 This CIRP Task enables a trainee to
perform the following activities per NISP-RP-04, Radiological Posting and Labeling:
·
Post External Radiation Hazards (excluding High
Radiation Areas, Locked High Radiation Areas and Very High Radiation Areas)
·
Post Areas with Smearable Contamination
·
Post Airborne Radioactivity Areas
·
Label Tools, Equipment, and Containers of
Radioactive Material
2.5.2 Applicable
topics from ACAD 93-008 include:
·
Define and state the posting requirements for a
radiologically controlled area, radiation area, high-radiation area, locked
high-radiation area, very-high-radiation area, hot spots, and radioactive
materials area.
·
Describe the posting procedures for posting
areas as airborne radioactivity areas.
·
Identify the packaging, marking and labeling
requirements for radioactive materials stored on site.
·
State the posting requirements for contamination
areas, high-contamination areas, alpha contamination levels, and discrete
radioactive particles.
·
Describe procedures for packaging, labeling and
marking radioactively contaminated materials.
·
Describe the approval and posting requirements
for radioactive material areas and radioactive material storage areas.
2.6
STE RP2.05 – Control Access Into High Radiation
Areas
2.6.1 This CIRP Task enables a
trainee to perform the following activities per NISP-RP-05, Access Controls for High Radiation Areas:
·
Brief for an HRA Entry
·
Control Area Configurations
2.6.2 Applicable
topics from ACAD 93-008 include:
·
Describe the access controls required for entry
into each level of radiologically controlled area (as applicable) including RWP
requirements, dosimetry, notification to Radiological Protection Department,
instrument or alarming dosimeter, locked barriers, warning signs and lights, and
key controls.
·
Discuss the conduct of pre job briefings for
radiological work, including when briefings are required, frequency of
briefings for continuing jobs, personnel required to attend briefings, items to
be discussed in briefings, and importance of resolving all questions in
briefings.
2.7
STE RP2.06 – Monitor for Personnel Contamination
2.7.1 This
CIRP Task enables a
trainee to perform the following activities per NISP-RP-06, Personnel Contamination Monitoring:
·
Respond to a Contamination Monitor Alarm
·
Determine the Contamination Hazard
2.7.2 Applicable
topics from ACAD 93-008 include:
·
Describe the principles of operation and
operating characteristics of personnel whole-body contamination monitors, hand
and foot monitors, and portal monitors.
·
Describe requirements for monitoring personnel
for radioactive contamination when exiting contaminated areas, when exiting
alpha contamination areas, when exiting discrete radioactive particle areas,
when exiting the radiologically controlled areas, and when exiting a plant.
·
Identify personnel who should be notified of
personnel contaminations.
·
Describe procedures for handling personnel shoe
or clothing contamination, including documentation required, decontamination
methods, and disposition of articles that cannot be decontaminated.
·
Describe the procedure to be followed when an
individual is contaminated, including restricting performance of follow-up
contamination surveys (whole-body) to radiological protection personnel,
recording contamination levels, location, date and time on the personnel
contamination report, directing decontamination of areas above limits,
identifying when nasal smears and/or a whole-body count are required,
documenting final results of decontamination, and interviewing individual to
identify source of contamination.
·
Select the appropriate personnel decontamination
techniques for various levels of contamination and the degree to which
contamination is fixed such as removing particles with tape, washing with
lukewarm water and mild detergent, scrubbing gently with soft brush, shaving
contaminated hair, sweating, and chemical decontamination
·
Explain why the following are not used for
personnel decontamination: hot water,
cold water, and abrasive cleaners.
·
Identify conditions in which skin dose calculations
should be performed as a result of skin contamination.
·
Identify situations in which personnel
decontamination should be referred to other appropriate personnel such as
contaminated wounds, contaminated eyes, ears, nose or throat, and contamination
that cannot be removed using approved techniques.
·
Describe special procedures for decontamination
of radioiodines.
·
Discuss additional actions or notifications
required if an injured person is contaminated.
·
State the limit (alarm setpoint) for radioactive
contamination on personnel.
2.7.3 Applicable
topics from ACAD 93-008 are included in STE RP2.01 and STE RP2.02.
2.8
STE RP2.07 – Control Radioactive Material Within
an RCA
2.8.1 This CIRP Task enables a trainee to
perform the following activities per NISP-RP-07, Control of Radioactive Material:
·
Release of Personal Items
·
Storage of Radioactive Material
·
Movement of Radioactive Material
2.8.2 Applicable
topics from ACAD 93-008 include:
·
Describe the principles of operation and
operating characteristics of tool monitors.
·
State the limits for
radioactive contamination for release of materials, equipment, and areas for unrestricted
use.
·
Describe requirements for monitoring tools and
equipment for radioactive contamination for release from the radiologically
controlled area, for unrestricted use in the radiologically controlled area,
for storage or reuse within the radiologically controlled area, and for release
from a plant.
·
Discuss procedures for disposal of materials
used in the decontamination process, such as rags, cloths or oil-impregnated
wipes, detergent solutions, and chemicals.
·
Describe the methods used for decontamination of
areas within a plant, such as mopping, using oil-impregnated wipes, wiping with
damp rags, vacuuming, and scrubbing with brushes.
·
Discuss requirements for conducting and
documenting post-decontamination surveys.
·
Identify special precautions associated with the
disposal of materials used in decontamination, such as wet mop heads, liquids
containing detergents, vacuum cleaner dust, mixed waste, discrete radioactive
particles, and alpha contamination.
·
Identify NRC-licensed radioactive materials
requiring special controls, and discuss the controls required.
·
Describe procedures for storage and retrieval of
radioactive materials.
·
Identify special precautions and restrictions
for storage of radioactive materials outdoors.
·
Discuss procedures for preventing the loss of
radioactive materials.
·
Describe plant requirements for monitoring
decontaminated equipment prior to release.
·
Discuss procedures for disposal of materials
that cannot be decontaminated successfully.
2.9
STE RP2.08 – Control HEPA Vacuums and
Ventilation Equipment
2.9.1 This CIRP Task enables a trainee to
perform the following activities per NISP-RP-08, Use and Control of HEPA Filtration and Vacuum Equipment:
·
Selection of HEPA Equipment
·
HEPA Setup
·
Monitoring of HEPA Operation
·
Storage of HEPA Equipment
2.9.2 ACAD
93-008 does not have topics applicable to NISP-RP-08. The EPRI STE task analysis identifies
knowledge and skills required to implement the process steps listed above.
2.10 STE
RP2.10 – Perform Low Risk Radiological Job Coverage
2.10.1 This CIRP Task enables a
trainee to perform the following activities per NISP-RP-10, Radiological Job Coverage for activities
with low radiological risk:
·
Prepare for Job Coverage
·
Survey Work Areas
·
Monitor and Verify Protective Measures
·
Respond to Unexpected Conditions
·
Exercise Stop Work Authority
2.10.2 Applicable
topics from ACAD 93-008 include:
·
Explain the requirements for the use of multiple
whole-body dosimetry, including conditions under which multiple badging is
required, proper placement of dosimetry, administrative procedures for issuing
and collecting multiple dosimeters, and the method of determining whole-body
dose of record.
·
Explain requirements for the use of extremity
dosimetry, including conditions under which extremity dosimetry is required,
administrative procedures for issuing and collecting extremity dosimetry, and
the type(s) of extremity dosimeters.
·
Describe the techniques for controlling
individual exposures while performing radiological work, such as the use of
pocket ion chambers or alarming dosimeters to allow workers to monitor dose
received, assignment of stay times, radiation work permits (RWPs), RPT job
coverage (local or video monitor), use of low-dose waiting areas, and remote
electronic dosimeters.
·
Describe procedures for controlling exposure to
beta radiation.
·
Identify techniques for controlling workers'
exposure to beta radiation, such as protective clothing, face shield, and
glasses.
·
Explain how exposure goals can be used to reduce
individual and collective exposures for specific radiological jobs, work
groups, and the plant.
·
Describe the method for estimating and assigning
neutron dose using gamma to neutron ratios.
·
Explain the ALARA concept and how it is applied
to the performance of radiological work.
·
Explain the action levels and corresponding
dose-reduction steps taken based on estimated cumulative dose.
·
Describe the concept of "total risk"
as applied to the prescription of radiological work controls.
·
Describe requirements for performing total
effective dose equivalent ALARA evaluations.
·
Describe work time reduction techniques that can
be used to reduce workers’ radiation exposure,
such as prejob planning and preparation, prejob mock-up training for
worker familiarity, review of procedures for workability and efficiency, use of
special tools to improve worker efficiency, improvement of worker comfort by
controlling environment (temperature, lighting, humidity,
space), prefabrication of equipment in low-dose or no-dose areas, and
decontamination to reduce protective clothing requirements.
·
Describe the techniques by which increased
distance can be used to reduce workers' radiation exposure, such as positioning
workers away from hot spots or high-dose areas, use of remote operators or
special tools to increase workers' distance from a source, and removing
equipment to low-dose areas for maintenance.
·
Describe the consequences of removing permanent
or temporary shielding without proper review and authorization.
·
Describe administrative procedures for the
control of permanent and temporary shielding.
·
Discuss factors that determine the ultimate
effectiveness of installing permanent or temporary shielding, such as the cost of installation (dollars
and man-rem) versus benefit(s) of installation, physical space limitations, 10
CFR 50.59 review constraints, floor loading constraints, pipe and pipe hanger
load constraints, and engineering evaluations.
·
Evaluate the effectiveness of temporary
shielding in various practical applications.
·
Describe the proper use of body shield vests to
reduce worker exposure, including the importance of the need to brief workers
on proper use of the vests, prior to performing work, ensuring the vest is
adequately shielding the body compartments requiring protection, and employing
methods to track and record worker use.
·
Describe techniques for controlling the spread
of contamination to personnel and equipment, including protective clothing,
packaging of contaminated materials, use of containment devices, control of
leaks from radioactive systems, and decontamination.
·
Describe the devices used for containment of
contamination during radiological work, such as drapes, glove bags, tents,
drain bottles, berms or absorbents to contain liquid, and catch containments.
·
Identify the conditions in which the use of each
type of containment device should be considered.
·
Describe techniques to minimize the spread of
contamination when using containment devices, including containment inspection
and maintenance, proper drainage, air filtration, protective clothing
requirements, precautions during use, removal of contaminated equipment, and
post job removal or decontamination of the containment device.
·
Identify methods by which a work site can be
prepared in advance for the performance of highly contaminated work, such as
work area covered and/or skirted with disposable material, work area covered
and/or skirted with launderable, reusable sheeting, work area covered with
strippable paint, concrete surfaces painted for ease in decontamination, and
use of filtered vacuums and ventilation.
·
Describe controls that can be used to reduce
exposure to airborne radioactivity, such as using filtered ventilation,
decontaminating areas or equipment to eliminate the source of airborne radioactivity,
using containment devices (tents, glove bags), repairing leaks in contaminated
systems, performing work under water or keeping contaminated materials wet,
using encapsulation coatings and materials, and using respiratory protection.
·
Discuss procedures for tracking exposure to
airborne radioactivity, including levels at which tracking is required and
sampling requirements.
·
Discuss requirements for entering and working in
airborne radioactivity areas, such as the radiation work permit, respiratory
protection equipment, and notification of Radiological Protection Department.
·
Describe the methods that can be used to invoke
radiological protection requirements including knowledge procedure steps,
radiation work permit, verbal instructions from the supervisor, verbal
instructions from radiological protection personnel.
·
Explain the responsibilities the following
personnel regarding specifying, complying with, monitoring, and enforcing
radiological protection and ALARA requirements: workers, workers’ supervisors,
RPTs, and RP supervisors.
·
Demonstrate actions that should be taken if
radiological conditions at the job site are significantly different from those
shown on the RWP or discussed in the prejob briefing.
·
Identify areas in a plant that require specific
manager approval for entry due to extreme radiological conditions.
·
Explain actions to be taken if the work scope or
work location changes from that listed on the RWP or discussed in the prejob
briefing.
·
Explain why RPTs have stop-work authority, and
identify the types of situations in which this authority should be implemented.
·
Discuss actions needed to recover from a
stop-work condition.
·
Identify and explain the factors that determine
the need for and type of protective clothing to be used during radiological
work, such as the level of contamination, position of the worker(s), presence
of airborne radioactivity, presence of liquid, type of work being performed,
environmental conditions, and "total risk" concept.
·
Describe special precautions that should be
used, when practical, to control or reduce exposures under certain radiological
conditions, such as assigning stay times
and time keepers, performing continuous RPT coverage, assigning alarming
dosimeters or dose rate meters, providing temporary shielding, specifying
low-dose-rate waiting area, removing high-dose-rate sources, using electronic
communications and remote monitoring telemetry.
·
Describe precautions that should be used when
practical to control the spread of radioactive contamination during
radiological work, such as the use of containment devices, requirements for
special protective clothing, and job site preparation with disposable
coverings.
·
Describe precautions that should be used, when
practical, to control airborne radioactivity, such as special ventilation,
containment device, decontamination of the work area, and performing work under
water or wetting contaminated work surfaces.
·
Evaluate the use of temporary shielding for
specific job applications.
·
Discuss the conditions under which each of the
following should be invoked during radiological work: continuous RPT coverage, intermittent
RPT coverage, RPT present at start of job, advanced radiation worker coverage, remote
RPT coverage, and no RPT coverage.
·
Describe the radiological surveys that should be
performed under various radiological conditions when work is in progress,
including radiation surveys, contamination surveys, airborne radioactivity
surveys, and locked high-radiation area surveys.
·
Identify locations that should be included in
radiation surveys when work is in progress, such as the component being worked
on, nearby piping and components, location where workers are positioned, the
path to and from the work site, low-dose areas, hot spots, and potential
transient dose rate areas (for example, resin lines, drain lines, movement of
sources).
·
Discuss plant access control procedures for
entry into the following for performance of work: radiologically controlled
area, radiologically controlled area, restricted area, radiation area,
high-radiation area, locked high-radiation area, very-high-radiation area,
contaminated area, airborne radioactivity area, and neutron radiation area.
·
Describe actions required when leaving a work
site upon completion of radiological work, such as follows: packaging, marking, and transferring
contaminated tools, equipment, and trash, removing protective clothing,
monitoring for contamination, returning special dosimetry, logging out of RWP,
and notifying radiological protection personnel of job completion.
·
Demonstrate the interpersonal skills and human
relations skills used to perform job coverage and challenge poor radworker
practices effectively in conditions such as the main control point, satellite
control point, job coverage during worker performance problems, and exit point
control.
·
Identify work practices, instrument responses or
alarms indicating the potential for a radiological incident.
·
Describe, in general terms, the expected
response to radiological incidents, including the precedence given to treating
injuries, mitigating and minimizing exposure to plant personnel and the public,
mitigating and minimizing damage to equipment, and notifying appropriate
personnel.
·
Discuss the role of various plant personnel in
responding to radiological incidents, including the following: personnel
directly involved in the incident and immediately affected by it (regardless of
work group), other personnel nearby but not affected, control room personnel,
RPTs, radiological protection supervisors, fire brigade, auxiliary operators,
and plant managers.
·
Identify the radiological consequence that may
result from various incidents, such as a sudden increase in dose rates,
uncontrolled spread of contamination, leak or spill of contaminated liquid, injury
to an individual while performing radiological work, fire in the radiologically
controlled area, loss of a high-activity radiation source, degraded core, and
uncontrolled or unsecured high-radiation areas.
·
Identify the immediate actions to be taken to
control and minimize the extent of radiological incidents such as an area
radiation monitor alarm, off-scale pocket ion chamber, alarm on electronic
dosimeter, continuous air monitor alarm, spill of contaminated liquid or resin,
spill of dry contaminated material, contaminated personnel, contaminated
injured personnel, fire in the radiologically controlled area, and unmonitored
release of radioactivity to the environment.
·
Identify the protective clothing requirements
for area decontamination.
·
Explain why area decontamination should begin at
the areas of lowest contamination levels and progress toward areas of high
levels.
·
Describe procedures for controlling discrete
radioactive particles.
3.0 Senior
Technician Training Program
The Senior Technician Training Program is used
to qualify technicians to perform tasks that require experience as specified by
ANSI 18.1 or ANSI 3.1. Trainees may
begin completing senior level CIRP Tasks after two years of experience as determined
using section 3.5 of NISP-RP-12; this enables technicians to independently
perform senior level tasks if a licensee is committed to ANSI 18.1. If a licensee is committed to ANSI 3.1, a
technician qualified to perform senior level tasks under ANSI 18.1 may not independently
perform such tasks unless ANSI 3.1 requirements are met as described in section
3.5 of NISP-RP-12.
Technicians may complete fundamentals training
and knowledge exams for senior level task qualification after completing all of
the junior level task qualifications.
However, performance evaluations cannot be completed until the
experience requirements meet ANSI 18.1 requirements.
3.1
RP Theory Fundamentals for Senior Task
Qualifications
This fundamentals course provides a trainee
with the common background knowledge essential for completing the senior level
STEs. Applicable topics from ACAD 93-008
include:
·
Authority and responsibilities of the NRC.
·
Purpose and significance of site technical
specifications.
·
Identify plant systems contributing to the radiological
source term of a plant and:
Ø
State the purpose of each system.
Ø
Identify major components and equipment
contributing to the radiological source term.
Ø
Identify conditions that preclude safe work near
system components.
Ø
Describe the radiological precautions associated
with maintenance tasks.
·
Discuss the normal uses, locations, advantages,
disadvantages, and relative sensitivity of a portable frisker, whole-body
contamination monitor, portal monitor, bag counters, tool monitors, and
conveyor type contamination monitors.
3.2
STE RP3.04 – Post a High Radiation Area, Locked
High Radiation Area, or Very High Radiation Area
3.2.1 This CIRP Task enables a trainee to
perform the following activities per NISP-RP-04, Radiological Posting and
Labeling:
·
Post High Radiation Areas, Locked High Radiation
Areas and Very High Radiation Areas.
3.2.2 Applicable
topics from ACAD 93-008 are included in STE RP2.04.
3.3
STE RP3.05 – Control Access into Locked High
Radiation Areas
3.3.1 This CIRP Task enables a trainee to
perform the following activities per NISP-RP-05, Access Controls for
High Radiation Areas:
·
Brief for an LHRA Entry
·
Issue a Key to Access an LHRA
·
Transfer Possession of an Issued LHRA Key
·
Terminate Access into an LHRA and Return the Key
3.3.2 Applicable
topics from ACAD 93-008 are included in STE RP2.05.
3.4
STE RP3.06 – Unconditionally Release Personnel
Following Valid Personnel Contamination Monitor Alarms
3.4.1 This CIRP Task enables a trainee to
perform the following activities per NISP-RP-06, Personnel Contamination Monitoring:
·
Personnel Decontamination
·
Dose Assessment and Documentation
·
Evaluate Personnel for Unconditional Release
following Personnel Contamination
3.4.2 Applicable
topics from ACAD 93-008 are included in STE RP2.06.
3.5
STE RP3.07 – Unconditionally Release Materials
from an RCA
3.5.1 This CIRP Task enables a
trainee to perform the following activities per NISP-RP-07, Control of Radioactive Material:
·
Release of Non-Personal Items
·
Release of Liquids
·
Release of Bulk or Aggregate Materials
·
Control of Radioactive Material Temporarily
Released
3.5.2 Applicable
topics from ACAD 93-008 are included in STE RP2.07.
3.6
STE RP3.09 – Provide Job Coverage for
Radiography
3.6.1
CIRP
Task RP3.10 is a prerequisite for completing this CIRP Task. This CIRP Task enables a trainee to perform
the following activities per NISP-RP-09, Radiography:
· Survey and Store a Radiography Source
· Review the Radiography Shot Plan
·
Prepare for the Radiography Shot
·
Monitor the Radiography Shot
·
Restore Area
·
Emergency Response Actions
3.6.2 Applicable
topics from ACAD 93-008 are included in RP2.10 and RP3.10.
3.7
STE RP3.10 – Perform Medium and High Risk
Radiological Job Coverage
3.7.1 This CIRP Task enables a trainee to
perform the following activities per NISP-RP-10, Radiological Job Coverage:
·
Perform Job Coverage for Activities with Medium
or High Radiological Risk
·
Track Stay Time
3.7.2 Applicable
topics from ACAD 93-008 include:
·
Identify the prejob radiological survey
requirements for the work operation to be performed. Based on the results of
the prejob surveys and the scope of work, identify or evaluate the need for a
formal ALARA review, pre job briefings with workers, type and location of
whole-body dosimeters, multiple whole-body dosimeters, extremity dosimeters,
protective clothing requirements, respiratory protection requirements, special
precautions or conditions to minimize the spread of contamination, reduce
exposure, or minimize airborne
contamination, degree of RPTs' on-the-job coverage, in-process radiological
surveys to be performed, radiological hold points, and electronic, secondary
dosimeter setpoints.
·
Describe how the results of ALARA reviews are
implemented, including documentation required, mandatory versus suggested
techniques, technician and worker authority and procedure for modifying
requirements, and responsibility for implementation.
·
Explain how the type and location of whole-body
dosimetry are determined based on body position and dose rate gradient.
·
Identify the criteria used to determine the need
for multiple badging or for extremity monitoring.
·
Identify measures to take when protective clothing
is used in conditions that could result in heat stress.
·
Identify and explain the factors that determine
the need for and type of respiratory protection equipment to be used during
radiological work, such as the levels of airborne radioactivity, type of
airborne radioactivity (particulate versus gas), levels of contamination in the
work area, whether work area is wet or dry, assigned protection factor of the
respiratory protection equipment, duration of the job, type of work being
performed (for example, welding,
grinding, cutting), impact of
decreased worker efficiency due to respirator use resulting in increased
whole-body dose, applicability of portable ventilation in lieu of respirator
use, and alpha classification.
·
Discuss proper job coverage and radiological
protection measures for high-exposure jobs and potential high-exposure jobs,
such as steam generator maintenance (PWR), reactor coolant pump seal
replacement (PWR), reactor water cleanup pump maintenance (BWR), recirculation
pump seal replacement (BWR), control rod drive rebuild (BWR), diving
operations, spent resin transfer operations, spent fuel movements, in-core
detector maintenance, and work in or around spent fuel pool.
Attachment 2: PADS
Codes for CIRP Task
Qualifications
JUNIOR QUALIFICATIONS
·
RPFUN1 RP Theory Fundamentals for Junior Task
Qualifications[1]
·
RP2.01 Operate Portable Radiological Survey
Instruments
·
RP2.02 Perform Radiation and Contamination
Surveys
·
RP2.03 Collect and Evaluate Radiological Air
Samples
·
RP2.04 Post Low Level Radiological Hazards
·
RP2.05 Control Access into High Radiation Areas
·
RP2.06 Monitor for Personnel Contamination
·
RP2.07 Control Radioactive Material Within an
RCA
·
RP2.08 Control HEPA Vacuums and Ventilation
Equipment
·
RP2.10 Perform Low Risk Radiological Job
Coverage
·
RPCONT Continuing Training for Supplemental RP
Technicians
·
JRTECH Prerequisites for Junior Technician
Position Qualification Complete
SENIOR QUALIFICATIONS
·
RPFUN2 RP Theory Fundamentals for Senior Task
Qualifications[2]
·
RP3.04 Post a High Radiation Area or Locked
High Radiation Area
Ø Expires if RPCONT not completed in previous or current
calendar year
·
RP3.05 Control Access into Locked High
Radiation Areas
Ø Expires if RPCONT not completed in previous or current
calendar year
·
RP3.06 Unconditionally Release Personnel
Following Valid Contamination Monitor Alarms
Ø Expires if RPCONT not completed in previous or current
calendar year
·
RP3.07 Unconditionally Release Materials from
an RCA
Ø Expires if RPCONT not completed in previous or current calendar
year
·
RP3.09 Provide Job Coverage for Radiography
Ø Expires if RPCONT not completed in previous or current
calendar year
·
RP3.10 Provide Medium and High Risk
Radiological Job Coverage
Ø Expires if RPCONT not completed in previous or current
calendar year
·
AN18.1 ANSI 18.1 Experience
·
AN3.1 ANSI 3.1 Experience
·
RPCONT Continuing Training for Supplemental RP
Technicians
[1]
This qualification is a prerequisite to completing the junior level STEs. This code is satisfied with successful
completion of the NUF exam prior to January 2018 or the revised RPFUN1
fundamentals course scheduled for implementation in January 2018.
[2]
This qualification is a prerequisite to completing the senior level STEs. This code is also satisfied with successful
completion of the NUF exam within the 5 year period prior to January 1, 2018 or
the revised RPFUN2 fundamentals course scheduled for implementation in January
2018.
This document lists the
sequence of actions required to transition from the current NEI RPT Skills to the CIRP Task qualifications using
PADS to track technician qualifications.
These instructions will enable reviews to identify the senior
technicians who do not have the required qualifications shown in PADS prior to
adopting the CIRP Task qualifications in 2018.
Actions may then be taken to ensure qualified senior technician have
accurate qualifications listed in PADS.
Action |
Performer |
Date |
|
1.
Establish EB 17-01 codes for RP technicians in PADS per Attachment
2. |
B Kelm |
Complete |
|
2.
Revise utility LMS programs per Enclosure 1 to provide common
qualification reports. |
All Sites |
On-Going |
|
3.
Input a continuing training, RPCONT, date of 12/1/2016 for
supplemental RP technicians to enable reports for testing and evaluation
during 2017.[1] |
B Kelm |
Complete |
|
4.
Provide a list to Bob Kelm of ANSI 3.1 qualified technicians and
another list for ANSI 18.1 qualified technicians. |
Suppliers |
Complete |
|
5.
Update the AN18.1 and AN3.1 experience codes for RP technicians
in PADS. |
B Kelm |
Complete |
|
6.
Establish the reporting capability shown by the examples in
Enclosures 2 and 3 from PADS. |
B Kelm |
Complete |
|
7.
Use reports to identify technicians who are ANSI qualified but
are not reflected as such in the PADS reports. Resolve conflicts as needed. |
Suppliers |
On-Going |
|
8.
Evaluate lessons learned in using PADS to identify changes
needed to improve qualification tracking for supplemental personnel and submit
an ECN to drive the changes and needed schedule. |
B Kelm ITOC |
July 20,
2018 |
|
Enclosure 1: Instructions to Update Utility LMS Programs
1. Enter
the following PADS codes in the utility LMS program to correspond to the
Radiation Protection Technician (RPT) Skills listed in NEI 03-04, Appendix D:
· RPT001—Operation of Survey Instruments (Ion
Chambers, Geiger-Mueller, Extendable Probe instruments), and Count Rate Meters
(Friskers)
· RPT002—Perform Radiation and Contamination Surveys
· RPT003—Perform Airborne Radioactivity Survey
· RPT004—Radioactive Material Movement and Storage on
Owner-Controlled Property, (Does not include 49 CFR shipping criteria)
· RPT005—Radiological Posting/Deposting
· RPT006—Respond to Radiological Alarms (e.g., CAM,
ARM, PCM, and Dosimetry, etc.)
· RPT007—Operate Continuous Air Monitors (CAMs)
· RPT008—Provide Radiological Job Coverage
· RPT009—Provide High Risk Radiological Job Coverage
· RPT010—Direct/Perform Area and Equipment
Decontamination
· RPT011—Survey Material for Unconditional Release
· RPT012—Personnel Decontamination
· RPT013—Monitor and Coach Workers in the RCA
Including Their Ingress and Egress
· RPT014—Operation of HEPA Vacuum and/or Ventilation
Equipment
·
RPT015—Remote Radiological Monitoring
2. For
each PADS code above, enter the utility-specific courses as components,
including TPE, that accomplish the objectives (i.e. steps and performance
standards) listed for each NEI RPT Skill in NEI 03-04, Appendix D.
a. The
utility-specific courses should encompass the NEI objectives at a minimum, i.e.
the site-specific courses should be as close as possible to the NEI objectives
but may have additional requirements as required by the utility to perform the
task.
3.
Enter
the CIRP Task qualification codes from Attachment 2 in the utility LMS program.
a.
For
each CIRP Task qualification code, enter the equivalent NEI Skills that fulfill
the requirements for the CIRP Task qualification as listed in Attachment 3.
b.
For
senior technician CIRP Task qualifications beginning with RP3, expire each
qualification unless RPCONT has been completed during the previous or current
calendar year.
4. Enter
the following courses in the utility LMS:
·
RPFUN1
– RP Fundamentals for Junior Task Qualifications
Ø
This will be a new course that is scheduled for
implementation in 2018.
Ø
Completion of the NUF course is equivalent.
·
RPFUN2
– RP Fundamentals for Senior Task Qualifications
Ø
This will be a new course that is scheduled for
implementation in 2018.
Ø
Completion of the NUF course is equivalent.
·
AN18.1
– ANSI 18.1 Experience
Ø
Completion will be entered in PADS by suppliers
and transferred to the utility LMS.
·
AN3.1
– ANSI 3.1 Experience
Ø
Completion will be entered in PADS by suppliers
and transferred to the utility LMS.
·
RPCONT
– Continuing Training for Supplemental RP Technicians
Ø
Completion will be entered in PADS by suppliers
and transferred to the utility LMS.
·
NUF –
RP Fundamentals Initial and Requalification Exam
Ø
Current PADS and NANTeL designation is 2023, RP
Fundamentals Initial Exam and 5261, RP Fundamentals Requal Exam
5. Establish
the following job qualification titles in the utility LMS.
a. Junior RP Technician – Required
components are:
Ø RPFUN1
Ø RP2.01
through RP2.08 and RP2.10
Ø RPCONT
Ø JRTECH
b. ANSI 18.1 Senior RP Technician –
Required components are:
Ø
Required components for Junior RP Technician
Ø
RPFUN2
Ø
RP3.04 through RP3.07, RP3.09, and RP3.10
Ø
AN18.1
Ø
Completion of RPCONT during the previous or
current calendar year
c. ANSI 3.1 Senior RP Technician –
Required components are:
Ø
Required components for ANSI 18.1 Senior RP
Technician
Ø
AN3.1
6. At
this point, the utility LMS should provide the same reporting capability as
shown in Enclosures 2 and 3.
7. Establish
a local batch interface with PADS per NEI 03-06, Electronic System Technical Documentation Manual to provide two-way
data movement between the LMS and PADS for the PADS codes listed in Attachment
1.
a. Enter
the identification numbers of supplemental RP technicians currently in the LMS
for the local batch interface.
Enclosure 2: RP Technician Individual Qualification Report
Name: ________________________________ Identification: _________________
Position
Qualification: TASK ONLY[2]
or JR TECH[3]
or ANSI 18.1 SR TECH[4]
or ANSI 3.1 SR TECH[5]
Qualification
Details[6]
(example)
Code |
Description |
Date Entered |
Entered By |
RPFUN1 |
RP Fundamentals for Junior Task Qualifications |
03/20/2015 |
TVABRF |
RPFUN2 |
RP Fundamentals for Senior Task Qualifications |
03/20/2015 |
TVABRF |
RP2.01 |
Operate Portable Radiological Survey Instruments |
05/15/2017 |
BHI |
RP2.03 |
Collect and Evaluate Radiological Air Samples |
06/03/2017 |
DZ |
RP2.06 |
Monitor for Personnel Contamination |
09/10/2017 |
FPLTPS |
RPCONT |
RP Tech Continuing Training |
11/11/2017 |
APSPAV |
AN18.1 |
Two Years of RP Experience |
03/16/2018 |
RSCS |
Enclosure 3: Batch Query – RP Technician Position
Qualification Report[7]
Name |
ID Number |
Pos Qual[8] |
Last RP CONT Date[9] |
|
|
|
|
|
|
|
|
|
|
|
|
|
|
|
|
|
|
|
|
[1]
This date will cause ANSI position
qualifications to expire at the end of 2017 until NISP gap training has been
completed as part of the 2017/2018 continuing training.
[2]
Technician may only work in a position that performs the specific tasks for
which qualification has been achieved.
[3]
Requires RP2.01 through RP2.08, RP2.10:
Technician may perform tasks not requiring ANSI qualification.
[4]
Requires all RP Codes, RP CONT Completed in Current or Previous Calendar Year,
and AN18.1
[5]
Requires all RP Codes, RP CONT Completed in Current or Previous Calendar Year,
and AN3.1
[6]
List Each Code Completed, Entry Date (only most recent), and Company Who
Entered Data.
[7]
This report provides the status for multiple individuals as selected for the
query.
[8]
The highest position qualification met on the date of the batch query using
criteria from Attachment 3.
[9]
The last date when RP continuing training was completed.
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