Transient and rate-dependent performance of conventional and thermosyphon-based electric storage water heating systems
Transient and rate dependent performance of conventional and thermosyphon based electric storage water heating systems
Transient and rate-depencent performance of conventional electric storage water heating systems
Measured performance of a thermosyphon-based electric water heating system
Transient behavior of a free convection loop communication with a finite reservoir
"Electric resistance has long been the most common configuration of residential thermal storage devices. Due to larage quantities of internal mixing which occur during the transient cycling of conventional configurations, the operation of thermal storage systems has historically been viewed as a one-dimensional, steady-state problem. This thesis first presents an investigation of a conventional electric resistance water heating configuration...A second study investigates the performance of a thermosyphon-based electric resistance configuration, particularly the increased performance realized in the absence of large-scale convective flows in the storage component and baffling of the inlet flow. The final study investigates both the development and balance of the convective flow loop established within the thermosyphon-based configuration for both the closed loop charging process and the open loop discharging process.
Mechanical and Aerospace Engineering
M.S. in Mechanical Engineering
University of Missouri--Rolla
xii, 106 leaves
© 2004 Justin W. McMenamy, All rights reserved.
Thesis - Citation
Library of Congress Subject Headings
Electric water heaters -- Testing
Heat -- Convection
Print OCLC #
Link to Catalog Record
Full-text not available: Request this publication directly from Missouri S&T Library or contact your local library.http://laurel.lso.missouri.edu/record=b5129044~S5
McMenamy, Justin W., "Transient and rate-dependent performance of conventional and thermosyphon-based electric storage water heating systems" (2004). Masters Theses. 2513.