ASME VVUQ 30.1 is focused on the scaling analysis that is used to evaluate the effects of differences (e.g., distortions) in the phenomenological behavior of experimental facilities compared to the phenomenological behavior of the real-world system.
Core Features:
Scaling analysis methodologies for supporting the design of facilities
Scaling analysis methodologies for experiments capable of generating data that characterize
phenomena present in an entire system
components of the system (e.g., the nuclear core or the steam generator)
Applications:
separate effects test (SET) facilities
integral effects test (IET) facilities
chemical processing
oil and gas production
energy systems involving other fuel sources
Purpose:
This Standard provides practices and procedures for determining if experimental data (used to validate models) is applicable to the real-world system
This standard covers the following:
Common nomenclature in Scaling analysis practices
Creation of the Adequacy Matrix and Validation matrix using Scaled Experimental Facilities
Scaling History and Types
Overview and Comparison of H2TS and FSA System Decomposition and Hierarchy
Concept of Time-Scale Modeling Dimensionless Groups in Terms of Time Ratios
Examples of Equations and Dimensionless Groups Used for Scaling Analysis
Intended Users:
Utilities providers, manufacturers, designers, laboratories, consultants, and regulators.
Table of Contents
ASME VVUQ 30.1 is focused on the scaling analysis that is used to evaluate the effects of differences (e.g., distortions) in the phenomenological behavior of experimental facilities compared to the phenomenological behavior of the real-world system.
Core Features:
- Scaling analysis methodologies for supporting the design of facilities
- Scaling analysis methodologies for experiments capable of generating data that characterize
- phenomena present in an entire system
- components of the system (e.g., the nuclear core or the steam generator)
Applications:
- separate effects test (SET) facilities
- integral effects test (IET) facilities
- chemical processing
- oil and gas production
- energy systems involving other fuel sources
Purpose:
This Standard provides practices and procedures for determining if experimental data (used to validate models) is applicable to the real-world system
This standard covers the following:
- Common nomenclature in Scaling analysis practices
- Creation of the Adequacy Matrix and Validation matrix using Scaled Experimental Facilities
- Scaling History and Types
- Overview and Comparison of H2TS and FSA System Decomposition and Hierarchy
- Concept of Time-Scale Modeling Dimensionless Groups in Terms of Time Ratios
- Examples of Equations and Dimensionless Groups Used for Scaling Analysis
Intended Users:
Utilities providers, manufacturers, designers, laboratories, consultants, and regulators.
Table of Contents
