Cover of: Power condenser heat transfer technology | Modern Developments in Marine Condensers (Conference) (1980 Naval Postgraduate School, Monterey)

Power condenser heat transfer technology

computer modeling, design, fouling
  • 490 Pages
  • 4.42 MB
  • English
Hemisphere , Washington, London
Condensers (Steam) -- Congre
Statement(proceedings of the workshop titled "Modern Developments in Marine Condensers" held at the Naval Postgraduate School, Monterey, California, March 26-28, 1980, and sponsored by the Naval Sea Systems Command and the Office of Naval Research) ; edited by P.J. Marto and R.H. Nunn.
ContributionsMarto, P. J., Nunn, R. H. 1933-, United States. Naval Sea Systems Command., United States. Office of Naval Research.
LC ClassificationsTJ557
The Physical Object
Paginationx,490p. :
ID Numbers
Open LibraryOL20947326M
ISBN 100070406626

Power condenser heat transfer technology: Computer modeling/design/fouling [Marto, P.J.] on *FREE* shipping on qualifying offers. Power condenser heat transfer technology: Computer modeling/design/foulingCited by: 3. Get this from a library.

Power condenser heat transfer technology: computer modeling/design/fouling. [P J Marto; R H Nunn; United States. Naval Sea Systems Command.; United States.

Description Power condenser heat transfer technology PDF

Office of Naval Research.;]. The title page and external appearance of Power Condenser Heat Transfer Technology lead the unsuspecting purchaser to expect Power condenser heat transfer technology book treatise on the design of power station condensers.

It is revealed in the preface, however, that the collection of papers comprising the book are the proceedings of a Workshop entitled ‘Modern Develop. One heat transfer improvement that could be game-changing for the power industry has little to do with the physical design of a condenser, but rather with how steam condenses inside heat.

A computational model of a power plant steam condenser which incorporates the effects of air in-leakage and removal on the performance of the condenser is reported.

The condenser interior space is modeled as a porous by: Heat Transfer Coefficient Heat Exchanger Heat Transfer Area Shell Side Surface Condenser These keywords were added by machine and not by the authors.

This process is experimental and the keywords may be updated as the learning algorithm by: 6. The flow and heat transfer performance of a condenser for a MW power plant has been numerically analyzed for three typical tube arrangements.

Among these three tube arrangements, tube arrangement B is the best, with an overall average heat transfer coefficient and a back pressure close to the HEI by: Srinivas Garimella, in Heat Transfer and Fluid Flow in Minichannels and Microchannels (Second Edition), Summary observations and recommendations.

The above discussion of the available literature on condensation heat transfer shows that much of the available information is on tubes larger than about 7 mm. In these tubes, heat transfer models have treated the. The Rankine cycle is a heat engine with a vapour power cycle.

The common working fluid is water. The cycle consists of four processes as shown in Figures 1 (a) and 1 (b): 1 to 2: Isentropic expansion (Steam turbine)1 An isentropic process, in which the entropy of working fluid remains constant.

2 to 3: Isobaric heat rejection (Condenser) An iso-File Size: KB. Section 4. Technology Characterization – Steam Turbines. Introduction. Steam turbines are one of the most versatile and oldest prime mover technologies still in general production used to drive a generator or mechanical machinery.

The first steam turbine used for power generation was invented in condenser heat transfer equation in HEI standard [4]. The higher the cooling temperature, the higher the heat trans-fer coefficient; larger the cycle water volume flow, the higher the heat transfer coefficient. In the same, the cleaner the cooling water pipes, the higher the heat transfer coefficient, and vice versa.

The terms of equation are, from left to right, the overall heat transfer resistance, the air-side heat transfer resistance, the heat transfer resistance of the heat exchanger tube, and the refrigerant-side heat transfer resistance.

The overall heat transfer resistance is based on a theoretical conductance Ut and a theoretical area At. The. SPX Heat Transfer’s commitment to excellence has resulted in pioneering the path of advancement in condenser technology. There are over 80 multi-pressure Ecolaire units in operation with up to six pressure levels.

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Double-effect hotwells are in operation recovering the auxiliary turbine steam heat content that would otherwiseFile Size: 1MB. In the applied heat transfer literature, such heat transfer equipment is often simply referred to as the “Surface Condenser.” A surface condenser is necessarily a large piece of equipment because more than 60% of the thermal energy produced by a power plant ends up as low enthalpy (waste) heat.

heat is used to power mechanical equipment designed to transfer heat from a colder, low-ener-gy level to a warmer, high-energy level. Refrigeration deals with the transfer of heat from a low temperature level at the heat source to a high temperature level at the heat sink by using a low boiling Size: 1MB.

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A surface condenser is an example of such a heat-exchange system. It is a shell and tube heat exchanger installed at the outlet of every steam turbine in thermal power stations. Commonly, the cooling water flows through the tube side and the steam enters the shell side where the condensation occurs on the outside of the heat transfer tubes.

The author examines current methods for modeling, diagnosing and improving condenser performance. He describes how to calculate heat transfer coefficients, provides details of the new ASME Power Test Code PTCand explains the significance of heat transfer coefficients in measuring the overall performance of an operating s: 1.

For example, a power plant with a feedwater flow rate of million pounds per hour and condenser pressure of 3 inches Hg would see a heat rate improvement of nearly 6% if station engineers could. THERMAL POWER PLANTS – Vol.

III - Air-Cooled Heat Exchangers and Cooling Towers - D.G. Kröger ©Encyclopedia of Life Support Systems (EOLSS) 2. Cooling Towers The development, practice, and performance of evaporative cooling systems or cooling towers have been described in numerous publications including some of those listed in the Size: KB.

The working principle of the organic Rankine cycle is the same as that of the Rankine cycle: the working fluid is pumped to a boiler where it is evaporated, passed through an expansion device (turbine, screw, scroll, or other expander), and then through a condenser heat exchanger where it is finally re-condensed.

In the ideal cycle described by the engine's theoretical model, the. For other Condensers not involving heat transfer, see Condenser (disambiguation). In systems involving heat transfer, a condenser is a device or unit used to condense a substance from its gaseous.

For a condenser heat-transfer area offt 2 and overall heat transfer coefficient 0f Btu/hft 2 °F, the condenser operates at 1 psia (the same conditions as Prob.

Now consider that the same plant operates with a condenser that has 15 percent more tubes (and surface area) and 15 percent more cooling water flow. The essential objective in surface condenser design is to provide equal access of vapor to all the surface. Early attempts to provide overall heat transfer coefficients for the design of steam condensers took no account of the detailed layout of the tubenest, e.g., HEI ().

Thermal Engineering International—TEi— has installations across the globe and is backed by more than years of experience in the design and manufacture of high quality Pressure Vessels and Heat Transfer Equipment for the power generation and process industries.

TEi markets include Fossil, Nuclear, and Solar Power as well as Oil, Gas and. Heat is given off as the temperature drops to condensation temperature. Then, more heat (specifically the latent heat of condensation) is released as the refrigerant liquefies.

There are air-cooled and water-cooled condensers, named for their condensing medium. The more popular is the air-cooled condenser. Improving Air-Cooled Condenser Performance in Combined Cycle Power Plants aside from the technology while this study presents the experimental method along with heat transfer.

The steams latent heat of condensation is passed to the water flowing through the tubes of condenser. After steam condenses, the saturated water continues to transfer heat to cooling water as it falls to the bottom of the condenser called, hotwell.

This is called subcooling and certain amount is desirable. Enhanced Condenser Tubes in a Nuclear Power Plant for Heat Rate Improvement. Heat Transfer Engineering: Vol. 32, No. 10, pp. Cited by: 5. bottom of the condenser, which is called a hot well.

The condensate is then pumped back to the steam generator to repeat the cycle. Condenser Types Steam Surface Condenser Operation The main heat transfer mechanisms in a surface condenser are the condensing of saturated steam on the outside of theFile Size: KB.

An Energy Analysis of Condenser. The book Thermal Power Plants - Advanced Applications introduces analysis of plant performance, energy efficiency, combustion, heat transfer, renewable power Author: Rk Ranjan. TEi condensers represent an evolution of advanced technology, offering improved thermal efficiency and advanced mechanical design to reduce forced outages and increase availability.

Steam Surface Condenser, Modular Changeouts. As the innovator in heat transfer technology, TEi provides exceptional modular changeout options for steam surface.Pinch Point – Heat Exchanger.

There is another interesting aspect to the design in that the temperature difference known as ‘pinch’ can limit the performance of heat exchangers if the areas and flow rates are not properly designed.

Pinch point is the location in heat exchanger where the temperature difference between hot and cold fluid is minimum at that [email protected]{osti_, title = {Transport Membrane Condenser for Water and Energy Recovery from Power Plant Flue Gas}, author = {Wang, Dexin}, abstractNote = {The new waste heat and water recovery technology based on a nanoporous ceramic membrane vapor separation mechanism has been developed for power plant flue gas application.

The recovered water vapor and its latent heat Cited by: