TY - GEN
T1 - Validation and Verification of ASYST Code for Predicting Condensation Phenomena in Nuclear Reactor Safety Systems
AU - Saraswat, Satya Prakash
AU - Hassan, Mubashir
AU - Osman, Sameer Mohammad
AU - Allison, Chris
AU - Addad, Yacine
N1 - Publisher Copyright:
Copyright © 2024 by ASME.
PY - 2024
Y1 - 2024
N2 - The ASYST (Adaptive System Thermal-Hydraulic) code series is a recent development that integrates the functionalities of SCDAPSIM and SAMPSON. It can simulate and analyze fluid and reactor systems with Best Estimate Plus Uncertainty (BEPU) capability. The proposed work involves conducting a thorough validation and verification process for the ASYST code model to predict the condensation phenomena using a condensation-separate effect test facility (present at the Department of Mechanical and Nuclear Engineering, Khalifa University), specifically focusing on the condensation phase. The condensation separate effect test's experimental facility was devised by members of the thermal-hydraulic team affiliated with the Nuclear Engineering Department at Khalifa University's Emirates Nuclear Technology Centre. This apparatus is specifically configured to acquire dependable data on condensation heat transfer analysis in a vertical tube simulating the condensing element within a Passive Containment Cooling System (PCCS), wherein steam and non-condensable gas mixtures are examined. The aim is to provide a detailed description of how the ASYST code aligns with and accurately represents the outcomes of the test facility. The condensation of the separate effect test facility is a critical benchmark for this validation and verification framework. By scrutinizing the code's performance concerning the test facility outcomes, this approach comprehensively evaluates the ASYST code's reliability and applicability to practical scenarios of nuclear reactors' passive safety systems.
AB - The ASYST (Adaptive System Thermal-Hydraulic) code series is a recent development that integrates the functionalities of SCDAPSIM and SAMPSON. It can simulate and analyze fluid and reactor systems with Best Estimate Plus Uncertainty (BEPU) capability. The proposed work involves conducting a thorough validation and verification process for the ASYST code model to predict the condensation phenomena using a condensation-separate effect test facility (present at the Department of Mechanical and Nuclear Engineering, Khalifa University), specifically focusing on the condensation phase. The condensation separate effect test's experimental facility was devised by members of the thermal-hydraulic team affiliated with the Nuclear Engineering Department at Khalifa University's Emirates Nuclear Technology Centre. This apparatus is specifically configured to acquire dependable data on condensation heat transfer analysis in a vertical tube simulating the condensing element within a Passive Containment Cooling System (PCCS), wherein steam and non-condensable gas mixtures are examined. The aim is to provide a detailed description of how the ASYST code aligns with and accurately represents the outcomes of the test facility. The condensation of the separate effect test facility is a critical benchmark for this validation and verification framework. By scrutinizing the code's performance concerning the test facility outcomes, this approach comprehensively evaluates the ASYST code's reliability and applicability to practical scenarios of nuclear reactors' passive safety systems.
KW - ASYST code
KW - Code validation and Verification
KW - Condensation phenomena
KW - Separate effect test facility
UR - http://www.scopus.com/inward/record.url?scp=85209213672&partnerID=8YFLogxK
U2 - 10.1115/ICONE31-134294
DO - 10.1115/ICONE31-134294
M3 - Conference contribution
AN - SCOPUS:85209213672
T3 - Proceedings of 2024 31st International Conference on Nuclear Engineering, ICONE 2024
BT - Risk Assessments and Management; Computer Code Verification and Validation; Nuclear Education and Public Acceptance
T2 - 2024 31st International Conference on Nuclear Engineering, ICONE 2024
Y2 - 4 August 2024 through 8 August 2024
ER -