№ lp_2_1_05483
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Technical paper presenting the structure, data collection, and implementation roadmap of an industrywide aging management program for monitoring neutron absorber materials in spent fuel pools across multiple countries.
Authors: H. Akkurt; E. Wong
Affiliation: Electric Power Research Institute (EPRI)
Addresses: 1300 West W.T. Harris Blvd., Charlotte, NC 28262, USA; 1325 G St. NW Suite 530, Washington, D.C. 20005, USA
Emails: [email protected]
Organization: Electric Power Research Institute (EPRI)
Topic: Long-term monitoring and aging management of neutron absorber materials in spent fuel pools
Material Focus: BORAL® and other metallic neutron absorber materials
Program Name: Industrywide Learning Aging Management Program (i-LAMP)
Geographic Scope: United States; Mexico; South Korea; Taiwan
Document Type: Technical conference paper
Key Components: SFP Water Chemistry Database; SFP Coupon Database; NAM data for SFPs with no coupons; Additional data and analysis needs
Data Collection Start: October 2017
Planned Historic Data Completion: End of 2019
Subject Matter: Criticality safety margins; water chemistry monitoring; coupon analysis; sister pool criteria development
Price: 8 / 10 USD
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Annex No. 1 – Technical Specification of the Oscillation System for the Radial Collimator of a Neutron Diffractometer Intended to Scan Deformations
Type of document: Technical specification annex
Subject: Design and manufacture of an oscillation system for a radial collimator
Intended use: Neutron diffractometer for scanning deformations
Device: Oscillation system of a radial collimator
Collimator type: Horizontally and vertically convergent radial collimator
Horizontal angle range: 14.456 degrees
Vertical angle range: 12.27 degrees
Focal length L1: 170 mm
Number of channels: 31
Number of foils: 30
Middle foil length: 350 mm
Resolution at focus: FWHM = 2 mm at neutron wavelength > 0.1 nm
Full width at half maximum: 2.00 mm × 0.669 degree
Total sample–detector distance: 1,000 mm
Oscillation range requirement: At least three collimator apertures
Mechanical constraint: Distance from detector arm to central horizontal detector axis 225 mm
Drive system: Stepper motor with encoder
Controller compatibility: Nanotec SMCI 33-2 or SMCI 47-S-2
Design documentation: To be created by the supplier
Legal reference: Act No. 134/2016 Coll., § 89, para. 6
Quasi-Differential Experiments for Validation of Neutron Scattering Evaluations for Materials Used in Fusion Systems
Year: 2023
Region / city: Rensselaer, New York
Subject: Neutron scattering, Fusion systems
Document type: Research paper
Institution: Rensselaer Polytechnic Institute, Department of Mechanical Aerospace and Nuclear Engineering
Authors: Julian Driebeek, Yaron Danon
Target audience: Scientists, researchers in nuclear engineering and fusion technology
Period of validity: N/A
Approval date: N/A
Date of changes: N/A
New Measurements of Gamma-rays from Thermal Neutron Capture on Manganese
Authors: Alex Howe; Marian Jandel; Daniel Fernandez; Aaron Fishbein; Elizabeth McCutchan; Shuya Ota; Stanislav Valenta
Affiliations: Department of Physics and Applied Physics, University of Massachusetts Lowell, United States; Brookhaven National Laboratory, United States; Faculty of Mathematics and Physics, Charles University, Czech Republic
Scientific Field: Nuclear physics
Topic: Thermal neutron capture gamma-ray production on manganese
Reaction: 55Mn(n, γ)56Mn
Research Facility: University of Massachusetts Lowell Research Reactor
Experimental Methods: Irradiation of 55Mn and MnCl2 samples in a collimated thermal neutron beam; high-purity germanium detectors with Compton shielding
Calibration Standards: 152Eu; 35Cl(n, γ)36Cl
Energy Range: 0.1–10 MeV calibration; 2–8 MeV reported results
Purpose: Measurement of gamma-ray intensities and production cross sections and comparison with nuclear data libraries and GEANT4 simulations
References Cited: EPJ WoC (2020); Nuclear Data Sheets (2013); IAEA (2007); Nuclear Physics A (2025); Journal of Radioanalytical and Nuclear Chemistry (2023)
Development of HINEG Series High Intensity Steady Neutron Generators
Year: 2023
Region / City: Chongqing
Topic: Nuclear Energy, Fusion Systems, Neutron Sources
Document Type: Research Report
Organization: FDS Consortium, International Academy of Neutron Science (Chongqing) Co., Ltd.
Author: Chao Liu
Target Audience: Researchers in nuclear energy, fusion technology, and neutron science
Period of Activity: Ongoing
Approval Date: Not specified
Modification Date: Not specified
experimental verification of the calculation of fast neutron flux attenuation by ITER constructional materials
Year: 2021
Region / City: Moscow, Russia
Topic: Neutron flux attenuation, constructional materials, ITER reactor
Document type: Research article
Organization / Institution: Project Center ITER
Author: D.S. Fridrikhsen, T.M. Kormilitsyn, S.Yu. Obudovsky, A.O. Kovalev, Yu.A. Kashchuk
Target audience: Researchers, engineers in nuclear physics, materials science
Period of validity: N/A
Approval date: N/A
Date of changes: N/A
Simulation of fusion neutron damage in tungsten, molybdenum, and iron using various irradiation sources
Year: 2020
Region / city: Moscow, Russia; Řež, Czech Republic; Prague, Czech Republic; Karlsruhe, Germany; Kharkov, Ukraine
Subject: Nuclear materials, radiation damage, fusion reactor materials
Document type: Research article
Institution / organization: National Research Nuclear University “MEPHI”; Nuclear Physics Institute of the CAS; Charles University; Karlsruhe Institute of Technology; National Science Centre “Kharkov Institute of Physics and Technology”; Research Centre Řež
Authors: O.V. Ogorodnikov, M. Majerle, J. Čizek, S. Simakov, V.V. Gann, P. Hruska, J. Kamenik, J. Pospisil, M. Štefanik, M. Vins, J. Štursa
Target audience: Nuclear physicists, materials scientists, fusion reactor researchers
Experimental methods: Positron-annihilation lifetime spectroscopy (PALS), transmission electron microscopy (TEM), nuclear reaction analysis
Materials studied: Tungsten (W), molybdenum (Mo), iron (Fe), RAFM steels, ODS steels
Irradiation types: High-energy protons, high-energy ions, high-energy neutrons, fission neutrons
Key focus: Radiation-induced defects, helium and hydrogen retention, displacement per atom (dpa) comparison, fusion neutron simulation
Comparative analysis: Fission neutrons vs. high-energy neutrons vs. energetic protons
Applications: ITER and DEMO reactor material performance prediction
Temperature effects: Influence on hydrogen retention and defect formation
Topics: Industrywide Absorber Neutron