You need JavaScript to view this

Dynamics of the cross flow heat exchanger for heating purposes

Abstract

A series of publications is available on the dynamic behaviour of heat exchangers (or heat transmitters, respectively), the subject of which is to deal with direct methods or with refined starting models for this general theme. The bridging between both these manners of advance remained as a problem. The author tried in his own investigation to solve the problem, and indeed by the selection of the correct starting model. He succeeded in this way, in that he removed conceptually a finned pipe from an arbitrary place of a heat exchanger and, furthermore, cut out from this particular pipe an arbitrary section. This section now does not stand alone for itself because the processes, which occur upstream of this section at the air-side and the water-side, are the input quantities of the section, which changes them due to its static and dynamic behaviour and emits them again as output quantities. The author, therefore, treats at first the dynamic behaviour of the section, which is represented in a signal flow diagram and which is used to derive approximate solutions from it. Furthermore, the author discusses the evident derivation of the total behaviour of heat exchangers.
Authors:
Mueller, K [1] 
  1. Karlsruhe Univ. (TH) (Germany, F.R.). Inst. fuer Mess- und Regelungstechnik mit Maschinenlaboratorium
Publication Date:
Sep 01, 1980
Product Type:
Journal Article
Reference Number:
EDB-81-026123
Resource Relation:
Journal Name: HLH, Heiz. Lueftung, Klim., Haustech.; (Germany, Federal Republic of); Journal Volume: 31:9; Other Information: According to a lecture held at the discussion meeting of the VDI/VDE Gesellschaft Mess- und Regelungstechnik GMR 'New processes in air condition engineering - current status and developments', Karlsruhe, March 12-13, 1980
Subject:
20 FOSSIL-FUELED POWER PLANTS; HEAT EXCHANGERS; DYNAMICS; TEMPERATURE CONTROL; CONTROL THEORY; CROSSFLOW SYSTEMS; FEEDBACK; FLOW RATE; HEAT TRANSFER; RESPONSE FUNCTIONS; TEMPERATURE DEPENDENCE; TIME DEPENDENCE; TRANSIENTS; TUBES; VALVES; CONTROL; CONTROL EQUIPMENT; ENERGY TRANSFER; EQUIPMENT; FLOW REGULATORS; FUNCTIONS; MECHANICS; 200101* - Fossil-Fueled Power Plants- Cooling & Heat Transfer Equipment & Systems
OSTI ID:
6680091
Country of Origin:
Germany
Language:
German
Other Identifying Numbers:
Journal ID: CODEN: HLHZA
Submitting Site:
DE
Size:
Pages: 331-336
Announcement Date:
Feb 01, 1981

Citation Formats

Mueller, K. Dynamics of the cross flow heat exchanger for heating purposes. Germany: N. p., 1980. Web.
Mueller, K. Dynamics of the cross flow heat exchanger for heating purposes. Germany.
Mueller, K. 1980. "Dynamics of the cross flow heat exchanger for heating purposes." Germany.
@misc{etde_6680091,
title = {Dynamics of the cross flow heat exchanger for heating purposes}
author = {Mueller, K}
abstractNote = {A series of publications is available on the dynamic behaviour of heat exchangers (or heat transmitters, respectively), the subject of which is to deal with direct methods or with refined starting models for this general theme. The bridging between both these manners of advance remained as a problem. The author tried in his own investigation to solve the problem, and indeed by the selection of the correct starting model. He succeeded in this way, in that he removed conceptually a finned pipe from an arbitrary place of a heat exchanger and, furthermore, cut out from this particular pipe an arbitrary section. This section now does not stand alone for itself because the processes, which occur upstream of this section at the air-side and the water-side, are the input quantities of the section, which changes them due to its static and dynamic behaviour and emits them again as output quantities. The author, therefore, treats at first the dynamic behaviour of the section, which is represented in a signal flow diagram and which is used to derive approximate solutions from it. Furthermore, the author discusses the evident derivation of the total behaviour of heat exchangers.}
journal = []
volume = {31:9}
journal type = {AC}
place = {Germany}
year = {1980}
month = {Sep}
}