Skip Nav Destination
ASTM Selected Technical Papers
Reactor Dosimetry
By
H Farrar, IV IV,
H Farrar, IV IV
1
Symposium General Chairman Consultant Bell Canyon, California
Search for other works by this author on:
EP Lippincott,
EP Lippincott
2
Program Committee Chairman
?Westinghouse
?Pittsburgh, Pennsylvania
Search for other works by this author on:
JG Williams,
JG Williams
3
Program Committee Vice Chairman
?University of Arizona
?Tucson, Arizona
Search for other works by this author on:
DW Vehar
DW Vehar
4
Scientific Secretary
?Sandia National Laboratories
?Albuquerque, New Mexico
Search for other works by this author on:
ISBN-10:
0-8031-1899-6
ISBN:
978-0-8031-1899-7
No. of Pages:
131
Publisher:
ASTM International
Publication date:
1994
eBook Chapter
Assessment of Uncertainty in Reactor Vessel Fluence Determination
By
EP Lippincott
EP Lippincott
1
Senior Engineer
, Westinghouse Electric Corporation
, PO Box 355, Pittsburgh, PA 15230
Search for other works by this author on:
Page Count:
9
-
Published:1994
Citation
Lippincott, E. "Assessment of Uncertainty in Reactor Vessel Fluence Determination." Reactor Dosimetry. Ed. Farrar, H, IV, Lippincott, E, Williams, J, & Vehar, D. 100 Barr Harbor Drive, PO Box C700, West Conshohocken, PA 19428-2959 : ASTM International, 1994.
Download citation file:
Evaluation of neutron fluence for reactor vessels is important for evaluation of irradiation damage that may limit vessel life. The uncertainty in calculated fluence is considered to be typically about 20%. Benchmark measurements have improved confidence in the uncertainty assessments and enable testing of improved cross section data and calculational procedures. Use of appropriate plant-specific measurements can lower uncertainty substantially below 20% for some cases and also can limit the effects of unknown errors that may cause larger deviations.
References
1.
Helm
, J. L.
, “Reactor Vessel Irradiation Damage - Absorbed Dose Estimation
”, Research Report EP 89-21, Empire State Electric Research Corporation
, 1993
.2.
Gold
, R.
and McElroy
, W.N.
, “The Light Water Reactor Pressure Vessel Surveillance Dosimetry Improvement Program (LWR-PV-SDIP): Past Accomplishments, Recent Developments, and Future Directions
”, Reactor Dosimetry: Methods, Applications, and Standardization, ASTM STP 1001, 1989
, pp 44–61.3.
McElroy
, W. N.
, Ed., “LWR-PV-SDIP: PCA Experiments and Blind Test
,” NUREG/CR-1861, 1981
.4.
Fero
, A. H.
, “Neutron and Gamma-Ray Flux Calculations for the VENUS PWR Engineering Mockup
,” WCAP-11173, NUREG/CR-4827, 01
1987
.5.
Butler
, J.
, et al, “Review of the NESTOR Shielding and Dosimetry Improvement Programme (NESDIP)
”, Reactor Dosimetrv: Methods, Applications, and Standardization, ASTM STP 1001, 1989
, pp 295–307.6.
Lippincott
, E. P.
, et al, “Evaluation of Surveillance Capsule and Reactor Cavity Dosimetry from H. B. Robinson Unit 2, Cycle 9
,” WCAP-11104; NUREG/CR-4576, 02
1987
.7.
Lippincott
, E. P.
, Anderson
, S. L.
, and Fero
, A. H.
, “Application of Ex-Vessel Neutron Dosimetry for Determination of Vessel Fluence
”, Reactor Dosimetrv: Methods, Applications, and standardization, ASTM STP 1001, 1989
, pp 147–154.8.
Lippincott
, E. P.
and Anderson
, S. L.
, “Reactor Vessel Fluence Monitoring and Reduction
”, presented at the Seventh ASTM-Euratom Symposium on Reactor Dosimetry, Strasbourg, France
, 08
1990
, to be published.9.
Anderson
, S. L.
, “Westinghouse Fast Neutron Exposure Methodology for Pressure Vessel Fluence Determination and Dosimetry Evaluation
”, WCAP-13362, 05
1992
.10.
Ingersoll
, D. T.
, et al, “Generation and Testing on an ENDF/B-VI Multigroup Cross-Section Library for LWR Shielding Applications
”, Reactor Dosimetrv ASTM STP 1228, Farrar
Harry
IV, Lippincott
E. Parvin
, and Williams
John G.
, Eds., American Society for Testing and Materials
, Philadelphia
, 1994
.11.
Haerker
, R. E.
, et al, “Application of the LEPRICON Unfolding Procedure to the Arkansas Nuclear One-Unit 1 Reactor
”, Nuclear Science and Engineering
, 93
, 137
, 06
1986
.12.
Maerker
, R.E.
, “Application of LEPRICON Methodology to LWR Pressure Vessel Dosimetry
”, Reactor Dosimetrv: Methods, Applications, and Standardization, ASTM STP 1001, 1989
, pp 405–414.13.
Maerker
, R. E.
, et al, “Theory of a New Unfolding Procedure in Pressurized Water Reactor Pressure Vessel Dosimetry and Development of an Associated Benchmark Data Base
”, Nuclear Science and Engineering
, 91
, 369
, 12
1985
.14.
Serpan
, C. Z.
, “Standardization of Dosimetry Related Procedures for the Prediction and Verification of Changes in LWR-PV Steel Fracture Toughness During a Reactor's Service Life: Status and Recommendations
,” Proceedings of the 3rd ASTM-Euratom International Symposium on Reactor Dosimetry, Ispra, Italy
, October 1–5, 1979; EUR 6813 EN-FR, 1980
.15.
Kellogg
, L. S.
and Lippincott
, E. P.
, “PSF Interlaboratory Comparison
”, Proc. of the Fourth ASTM-Euratom Symposium on Reactor Dosimetry, NUREG/CP-0029, 929 (1982
).16.
Lippincott
, E. P.
, “Consumers Power Company Palisades Nuclear Plant Reactor Vessel Fluence Analysis
”, WCAP-13348, Westinghouse Electric Corporation
. Pittsburgh, PA
, 1992
.
This content is only available via PDF.
You do not currently have access to this chapter.
Email alerts
Related Chapters
Assessment of Neutron Fluence Uncertainty and its Impact on Safety Issues
Reactor Dosimetry: Radiation Metrology and Assessment
Neutron Spectrum Measurements in SEG-V Benchmark System
Reactor Dosimetry: Methods, Applications, and Standardization
Development and Modeling of Neutron Detectors for In-Core Measurement Requirements in Nuclear Reactors
Reactor Dosimetry: Radiation Metrology and Assessment
Related Articles
Calculation and Uncertainty Analysis of Core Parameters of Advanced Lead-Cooled Modular Nuclear Reactor Using New Nuclear Data Libraries
ASME J of Nuclear Rad Sci (July,2024)
Dynamic Response of a Cylindrical Shell in a Potential Fluid
J. Appl. Mech (December,1979)
The Use of Polycarbonate as Dosimeter of High Doses
ASME J of Nuclear Rad Sci (April,2021)