System Dynamics Approach to Pipe Network Analysis
- 1 August 1986
- journal article
- Published by American Society of Civil Engineers (ASCE) in Journal of Hydraulic Engineering
- Vol. 112 (8) , 728-749
- https://doi.org/10.1061/(asce)0733-9429(1986)112:8(728)
Abstract
A method of analysis based on rigid water column theory for slow transients and steady‐state flows in pipe networks is described. A graph theoretic formulation yields a system of ordinary differential equations of the first order that describes the dynamic behavior of the network. A definite Liapunov function of quadratic form to prove asymptotical stability of the network at the steady state is derived from Tellegen's Theorem in electrical circuit theory; this function gives a unique and precise criterion for the attainment of the steady state by the system. The time integration can be performed directly by using, for example, the Runge‐Kutta method without involving any iterative procedure. Simulations of slow transients and dynamic relaxation processes to solve the steady‐state flow problem are shown in terms of small networks.Keywords
This publication has 15 references indexed in Scilit:
- Reliability of Algorithms for Pipe Network AnalysisJournal of the Hydraulics Division, 1981
- Discussion of “Extended Set of Components in Pipe Networks”Journal of the Hydraulics Division, 1981
- Extended Set of Components in Pipe NetworksJournal of the Hydraulics Division, 1980
- Computer Analysis of Hydraulic Transients in a Complex Piping SystemJournal AWWA, 1978
- The Analysis of Large, Complex Water Networks With Small Computer SystemsJournal AWWA, 1978
- Solving the Pipe Network Analysis Problem Using Optimization TechniquesManagement Science, 1978
- Pressure Reducing Valves in Pipe Network AnalysisJournal of the Hydraulics Division, 1976
- Sparsity Oriented Analysis of Large Pipe NetworksJournal of the Hydraulics Division, 1975
- A theory of nonlinear networks. IQuarterly of Applied Mathematics, 1964
- Control System Analysis and Design Via the “Second Method” of Lyapunov: I—Continuous-Time SystemsJournal of Basic Engineering, 1960