Published July 1982 | Version v1
Book

Calculation of dynamic hydraulic forces in nuclear plant piping systems

Creators

  • 1. Combustion Engineering, Inc., Windsor, CT (USA)

Description

A computer code was developed as one of the tools needed for analysis of piping dynamic loading on nuclear power plant high energy piping systems, including reactor safety and relief value upstream and discharge piping systems. The code calculates the transient hydraulic data and dynamic forces within the one-dimensional system, caused by a pipe rupture or sudden value motion, using a fixed space and varying time grid-method of characteristics. Subcooled, superheated, homogeneous two-phase and transition flow regimes are considered. A non-equilibrium effect is also considered in computing the fluid specific volume and fluid local sonic velocity in the two-phase mixture. Various hydraulic components such as a spring loaded or power operated value, enlarger, orifice, pressurized tank, multiple pipe junction (tee), etc. are considered as boundary conditions. Comparisons of calculated results with available experimental data shows a good agreement. (Author)

Additional details

Publishing Information

Publisher
The Korean Federation of Scientific and Technological Societies.
Imprint Place
Seoul, Korea
Imprint Title
Proceedings of Korea Symposium on Science and Technology
Imprint Pagination
vp.
Journal Page Range
p. 517-522.

Conference

Title
'82 Summer Korea Symposium on Science and Technology.
Dates
13 Jul 1982.
Place
Seoul (Korea, Republic of).

INIS

Country of Publication
Korea, Republic of
Country of Input or Organization
Korea, Republic of
INIS RN
14746710
Subject category
S22: GENERAL STUDIES OF NUCLEAR REACTORS; S73: NUCLEAR PHYSICS AND RADIATION PHYSICS;
Resource subtype / Literary indicator
Conference
Descriptors DEI
NUCLEAR POWER PLANTS; P CODES; PIPE FITTINGS; PIPELINES; REACTOR SAFETY; TWO-PHASE FLOW; VALVES
Descriptors DEC
COMPUTER CODES; CONTROL EQUIPMENT; EQUIPMENT; FLOW REGULATORS; FLUID FLOW; NUCLEAR FACILITIES; POWER PLANTS; SAFETY; THERMAL POWER PLANTS