Kuppan T. Heat Exchanger Design Handbook
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References
CHAPTER
1
1.
Shah, R. K., Classification of heat exchangers, in
Heat Exchangers: Therinal-Hydraulic Fundamen-
tals and Design,
(S.
Kakac, A. E. Bergles, and F. Mayinger, eds.), Hemisphere, Washington, D.C.,
198 1, pp. 9-46.
2.
Shah, R. K., Classification of Heat Exchangers, Lecture Notes, December 1990, pp. 1-66.
3.
Gupta,
J.
P.,
Fundamentals
of
Heat Exchanger and Pressure Vessel Technology,
Hemisphere,
Washington, D.C., 1986.
4.
Graham Walker,
Cryocoolers, Part
2:
Applications,
Plenum Press, New York.
5a. Larowski, A., and Taylor, M. A., Systematic Procedures for Selection of Heat Exchangers, C58/82,
Institution of Mechanical Engineers, London, 1982, pp. 32-56.
5b. Larowski, A., and Taylor,
M.
A., Systematic procedure for selection of heat exchangers,
Proc.
Instn. Mech. Eng., 197A,
51-69 (1983).
6.
Kern, D.
Q.,
Process Heat Transfer,
McGraw-Hill, New York, 1950.
7.
Chisholm, D. (ed.),
Developments in Heat Exchanger Technology-I,
Applied Science Publishers,
London, England, 1980.
8.
Minton, P., Process heat transfer,
Proc. 9th Int. Heat Transfer Conf.,
Heat Transfer 1990-Jerusalem,
Paper No. KN-22,
I,
355-362.
9.
Timmerhaus, K. D., and Flynn, T. M.,
Cryogenic Progress Engineering,
Plenum Press, New York.
10.
Muoio,
J.
M., Glass as a material of construction for heat transfer equipment,
Industrial Heat
Exchangers Conference Proceedings,
(A.
J.
Hayes,
W. W.
Liang,
S.
L. Richlen, and E.
S.
Tabb,
eds.), American Society for Metals, Metals Park, Ohio, 1985, pp. 385-390.
11.
Salim Yilmaz, and Samuelson,
B.,
Vertical thermosyphon boiling in spiral plate heat exchangers,
Heat Transfer-I 983,
Seattle, Chemical Engineering Progress Symposium Series,
No.
225,
79,
47-53.
12.
Markovitz, R.
E.,
Picking the best vessel jacket,
Chemical Engineering,
1971, pp. 156-162.
13.
Usher,
J.
D., and Cattell, G.
S.,
Compact heat exchangers, in
Deiielopnzents
in
Heat Exchanger
Technologv-I
(D. Chisholm, ed.), Applied Science Publishers Ltd., London, 1980, pp. 127- 152.
14.
Reay, D. A., Heat exchangers for waste heat recovery, International Research and Development
I035
I036
References
Co., Ltd., New Castle upon Tyne, UK., in Developments in Heat Exchanger Technology-I
(D.
Chisholm, ed.), Applied Science Publishers Ltd., London, 1980, pp. 233-256.
15.
Butterworth, D., and Mascone, C.
F.,
Heat transfer heads into the 21 century, Chemical Engineering
Progress, September, 30-37 (1991).
16.
Taylor, M. A., ed., Plate-Fin Heat Exchangers, Guide to Their SpeciJication and Use, HTFS (Har-
well Laboratory), Oxon, UK, 1980.
17.
Shell and Tube Exchangers
for
General Refinery Services, API Standard 660, 4th ed., American
Petroleum Institute, Washington, D.C.
18.
Gollin, M., Heat exchanger design and rating, Chapter 2, Part 7, in Handbook
of
Applied Thermal
Design (E. C. Guyer, ed.), McGraw-Hill, New York, 1984, pp. 7-24-7-36.
19.
Caciula, L., and Rudy, T. M., Prediction of plate heat exchanger performance, D Symp. Ser., Heat
Transfer-1983, Seattle, pp. 76-89.
20.
Fraas, A.
P.,
and Ozisik, M. N.. Heat Exchanger Design, John Wiley
&
Sons, New York, 1965.
Suggested Readings
1.
Shah,
R.
K., Classification of heat exchangers, in Low Reynolds Number
Flow
Heat Exchangers
(S.
Kakac,
R.
K.
Shah, and A.
E.
Bergles, eds.), Hemisphere, Washington, D.C., 1983, pp. 9-19.
2.
Sukhatme,
S.
P., Devotta,
S.,
Classification of heat transfer equipment, in Heat Transfer Equipment
Design (R.
K.
Shah, E. C. Subbarao, and R. A. Mashelikar, eds.), Hemisphere, Washington, D.C.,
1988, pp. 7-16.
3.
Shah,
R.
K., What’s new in heat exchanger design, ASME, Mech. Eng.,
106,
50-59 (1984).
4.
Scaccia, C. and Theoclitus,
G.,
Types, performance and applications, in The Chemical Engineering
Guide to Heat Transfer, Volume I: Plant Principles, (K. J. McNaughton and the Staff of Chemical
Engineering, eds.), HemisphereNcGraw-Hill, New York, 1986, pp. 3- 14.
Bibliography
1.
Walker,
G.,
Industrial Heat Exchangers-A Basic Guide, HemisphereNcGraw-Hill, New York,
1982.
2.
Apblett, W.
R.,
ed., Shell and Tube Heat Exchangers, American Society for Metals, Metals Park,
Ohio, 1982.
3.
Hryniszak,
W.,
Heat Exchangers: Application to Gas Turbines, Butterworth Scientific Publications,
London, 1958.
4.
McNaughton, K.
J.,
and the Staff of Chemical Engineering, eds., The Chemical Engineering Guide
to Heat Transfer: Vol. I: Plant Principles, Vol. 11: Equipment, HemisphereNcGraw-Hill, New
York, 1986.
5.
Afgan, N.
H.,
and Schlunder,
E.
U.,
eds., Heat Exchangers: Design and Theory Sourcebook, Mc-
Graw-Hill, New York, 1974.
6.
Shah,
R.
K., and London, A. L., Laminar Flow Forced Convection in Ducts, Supplement
I
to
Advances in Heat Transfer Series, Academic Press, New York, 1978.
7. Reay, D. A., Heat Recover). Systems, E. and
F.
N. Spon Ltd., London, 1979.
8.
Schmidt,
F.
W., and Willmott, A. J., Thermal Energy Storage and Regeneration, Hemispherehlc-
Graw-Hill, Washington, D.C., 198
1.
9. Bhatia, M. V., and Cheremisinoff, N. P., Heat Transfer Equipment, Process Equipment Series, Vol.
2, Technomic, Westport, Conn., 1980.
10.
Somerscales,
E.
F.
C., and Knudsen, J.
G.,
eds., Fouling
of
Heat Transfer Equipment, Hemisphere/
McGraw-Hill, Washington, D.C., 198 1.
11. Kakac,
S.,
Bergles,
A.
E., and Mayinger,
F.,
eds., Heat Exchangers: Thermal-Hydraulic Fundarnen-
tals and Design, HemisphereNcGraw-Hill, Washington, D.C., 198 1.
12a. Schlunder, E.
U.,
editor-in-Chief, Heat Exchanger Design Handbook, in five volumes (Vol.
1-
Heat Exchanger Theory, Vol. 2-Fluid Mechanics and Heat Transfer, Vol. 3-Thermal and Hv-
draulic Design
of
Heat Exchangers, Vol. &Mechanical Design
of
Heat Exchangers, and Vol.
5-Physical Properties),Hemisphere, Washington, D.C., 1983.
References
1037
12b. Hemisphere Handbook
of
Heat Exchanger Design, G. F. Hewitt, Coordinating Editor, Hemisphere,
New York, 1990.
13.
Kern, D.
Q.,
and Kraus, A. D., Extended SurSface Heat Transfer, McGraw-Hill, New York, 1972,
pp. 439-641.
14.
Hussain, H., Heat Transfer in Counterflow, Parallel Flow, and CrossFlow, McGraw-Hill, New
York, 1982.
15.
Ganapathy, V., Applied Heat Transfer, PennWell Publishing
Co.,
Tulsa, OK.
16.
Kraus, A. D., Analysis and Evaluation
of
Extended Surface Thermal Systems, Hemisphere, Wash-
ington, D.C., 1982.
17.
Taborek, J,, Hewitt, G. F., and Afgan, N., eds., Heat Exchangers: Theory and Practice, Hemisphere/
McGraw-Hill, Washington, D.C., 1983.
18.
Kakac,
S.,
Shah, R. K., and Bergles, A. E., eds.,
LOW
Reynolds Number Flo~* Heat Exchangers,
Hemisphere, Washington, D.C., 1983.
19.
Bryers, R. W., ed., Fouling
of
Heat Exchanger Surfaces, Engineering Foundation, New York, 1983.
20.
Singh, K. P., and Soler, A.
I.,
Mechanical Design
of
Heat Exchangers and Pressure Vessel Compo-
nents, Arcturus Publishers, Cherry Hill, NJ, 1984.
21.
Kays, W. M., and London, A.
L.,
Compact Heat Exchangers, third edition, McGraw-Hill, New
York, 1984.
22.
Manzoor, M., Heat Flow Through Extended Surface Heat Exchangers, Springer-Verlag, Berlin,
1984.
23.
Rohsenow, W. M., Hartnett, J. P., and Ganic,
E.
N., eds., Handbook
of
Heat Transfer Applications,
McGraw-Hill, New York, 1985.
24.
Garrett-Price, B.
A.,
Smith,
S.
A.,
Watts, R.
L.,
Knudsen, J. C., Marner, W. J., and Suitor, J. W.,
Fouling
of
Heat Exchangers, Noyes, Park Ridge, NJ, 1985.
25,
Hayes, A.
J.,
Liang, W. W., Richlen,
S.
L.,
and Tabb, E.
S.,
eds., Industrial Heat Exchangers
Conference Proceedings, American Society for Metals, Metals Park, Ohio, 1985.
26.
Cheremisinoff, N., ed., Handbook
of
Heat and Mass Transfer, Vol. 1-Heat Transfer Operation
&
Vol.
2-Muss
Transfer and Reactor Design, Gulf Publishing Company, Houston, pp. 767-805.
27.
Foster, B. D., and Patton, J. B., Editors, Ceramic Heat Exchangers, American Ceramic Society,
Columbus,
Ohio,
1985.
28.
Mori, Y., Sheindlin, A. E., and Afgan, N.
H.,
eds., High Temperature Heat Exchangers, Hemi-
sphere, Washington, D.C., 1986.
29.
Jakob, M., Heat Transfer, John Wiley
&
Sons, New York, 1957.
30.
Palen, J. W., ed., Heat Exchanger Sourcebook, Hemisphere, Washington, D.C., 1987.
31.
Chen,
S.
S.,
Flow Induced Vibration
of
Circular Cylindrical Structures, Hemisphere, Washington,
D.C., 1987.
32.
Stasiulevicius, J., and Skrinska, A., Heat Transfer
of
Finned Tube Bundles in Crossflowi, Hemi-
sphere, Washington, D.C., 1987.
32.
Kakac,
S.,
Shah, R. K., and Aung, W., eds., Handbook
of
Single Phase Convective Heat Transfer,
John Wiley
&
Sons, New York, 1987.
33.
Shah, R. K., Subbarao, E. C., and Mashelkar,
R.
A., eds., Heat Transfer Equipment Design, Hemi-
sphere, Washington, D.C., 1988.
34.
Zukauskas, A., and Ulinskas,
R.,
Heat Transfer in Tube Banks in Crossflow, Hemisphere, Washing-
ton, D.C., 1988.
35.
Kakac,
S.,
Bergles, A. E., and Fernandes,
E.
O.,
eds., Two-Phase Flow Heat Exchangers: Thermal
Hydraulic Fundamentals and Design, Kluwer Academic Publishers, Dordrecht, 1988.
36.
Melo,
L.
F., Bott, T.
R.,
and Bernardo,
C.
A., eds., Advances in Fouling Science and Technology,
Kluwer Academic Publishers, Dordrecht, 1988.
37.
Chisholm, D., ed., Heat Exchanger Technology, Elsevier Applied Science, New York, 1988.
38.
Mahajan, K. K., Design
of
Process Equipments, Pressure Vessel Handbook Publishing Company,
Tulsa, Okla., 1985.
39.
Shah, R. K., and Mueller, A. C., Heat exchanger, in Ullmann’s Encyclopedia
of
Industrial Chemis-
try, Unit Operations
11,
Vol. B3, VCH Publishers, Weinheim, Germany, 1989, Chapter 2.
I038
References
40.
Zukauskas, A. A.,
High Per$ormance Single-Phase Heat Exchangers,
Hemisphere, Washington,
D.C., 1989. J. Karni, English edition editor.
41.
Fraas, A. P.,
Heat Exchanger Design,
second edition, John Wiley
8i
Sons, New York, 1989.
42.
Hewitt,
G.
F.,
and Whalley, P. B.,
Handbook
of
Heat Exchanger Calculations,
Hemishpere. Wash-
ington, D.C., 1989.
43.
Saunders,
E.
A.
D.,
Heat Exchangers: Selection, Design and Construction,
Addison Wesley Long-
man, Reading, MA, 1989.
44.
Yokell,
S.,
A
Working Guide to Shell and Tube Heat Exchangers,
McGraw-Hill, New York, 1990.
45.
Shah, R.
K.,
Kraus,
A.
D.,
and Metzger, D., eds.,
Compact Heat Exchangers-A FestschriJt for
A.
L.
London,
Hemisphere, Washington, D.C., 1990, pp.
3
1-90.
46.
Mondt, J. R., Regenerative heat exchangers: The elements of their design, selection and use, Re-
search Publication GMR-3396, General Motors Research Laboratories, Warren, Mich., 1980.
47.
Cheremisinoff, N. P.,
Heat Transfer Pocket Handbook,
Gulf Publishing Company, Books Division,
Houston, 19xx.
48.
Perry, R. H., and Chilton, C. H., eds.,
Chemical Engineers’ Handbook,
5th ed., McGraw-Hill,
New
York, 1973.
49.
Levenspiel,
O.,
Engineering
Flow
and Heat Exchange,
Plenum Press, New York, 1984.
50.
Sheindlin, A. E., ed.,
High Temperature Equipment,
Hemisphere, Washington,
D.C.,
1986.
51.
Hewitt,
G.
F., Shires,
G.
L., and Bott, T. R.,
Process Heat Transfer,
CRC Press, Boca Raton,
Fla.,
1994.
52.
Martin, H.,
Heat Exchangers,
Hemisphere, Washington,
D.C.,
1992
CHAPTER
2
1.
Shah, R.
K.,
and Mueller, A.
C.,
Heat exchanger basic thermal design methods, in
Handbook
of
Heat Transfer Applications,
second edition (W. M. Rohsenow, J. P. Hartnett, and E. N. Ganic,
eds.), McGraw-Hill, New York, 1985, pp. 4- 1-4-77.
2.
Shah, R. K., Heat exchanger basic design methods, in
Low
Reynolds Number
Flow
Heat Exchangers
(S.
Kakac,
R.
K. Shah, and A.
E.
Bergles, eds.), Hemisphere, Washington, D.C., 1983, pp. 21-71.
3.
Baclic, B.
S.,
E-NTU analysis of complicated flow arrangements, in
Compact Heat Exchungers-A
Festschrifr for A.
L.
London
(R. K. Shah, A.
D.
Kraus, and
D.
Metzger, eds.), Hemisphere, Wash-
ington, D.C., 1990, pp. 31-90.
4.
London, A. L., and Seban, R. A., A Generalization of the Methods of Heat Exchanger Analysis,
Mechanical Engineerig Department, Stanford University, Stanford, Calif.
5.
Standards
of
Tubular Exchanger Manufacturers Association,
seventh edition, Tubular Exchanger
Manufacturers Association, Tanytown, NY, 1988.
6.
Fraas, A. P., and Ozisik,
M.
N.,
Heat Exchanger Design,
John Wiley
&
Sons, New York, 1965.
7. Smith,
D.
M., Mean temperature difference in crossflow,
Engineering,
138,479-48
I
;
138,
606-607
(
1934).
8.
Mueller, A. C.,
Handbook
of
Heat Transfer,
(W. H. Rohsenow and J. P. Hartnett, eds.), McGraw-
Hill, New York, 1973.
9.
Singh, K. P., Some fundamental relationships for tubular heat exchanger thermal performance,
Trans. ASME,
J.
Heat Transfer,
103,
573-578 (1981).
10.
Turton, R., Ferguson, C. D., and Levenspiel,
O.,
Performance and design charts for heat exchangers,
Trans. ASME,
J.
Heat Transfer,
106,
893-895 (1984).
11.
Bowman, R. A., Mueller, A. C., and Nagle, W. M., Mean temperature difference,
Trurrs.
ASME,
62,
283-294 (1940).
12.
Undenvood, A. J.
V.,
The calculation
of
the mean temperature difference in multipass heat ex-
changers,
J.
Inst. Petroleum Technol.,
20,
145-158 (1934).
13.
Ten Broeck, H., Multipass heat exchanger calculations,
Ind.
Eng.
Chem.,
30,
1041-1042 (1938).
14.
Kays, W. M., and London, A. L.,
Cornpact Heat Exchangers,
2nd edition, McGraw-Hill, New York,
1964.
References
I039
15.
TEMA,
Standards
of
Tubular Exchanger Manufacturers Association,
6th edition, TEMA, New
York, 1978.
16.
Schlinder, E. V., editor-in-chief,
Heat Exchanger Design Handbook,
Vol.
1,
Hemisphere, Washing-
ton, D.C., 1983.
17.
Pignotti, A., Flow reversibility of heat exchangers,
Tram. ASME,
J.
Heat Transfer,
106,
361 -368
(1984).
18.
Pignotti, A., Relation between the thermal effectiveness of overall parallel and counterflow heat
exchangers,
Trans. ASME,
J.
Heat Transfer,
I
I I,
294-299
(
1989).
19.
Shah, R.
K.,
Personal Communication, dt. 3.1.1998. Senior Staff Research Scientist, Heat Ex-
changer Development, DELPHI Harrison Thermal Systems, Lockport, NY.
20.
Nusselt, W., A new formula for heat transfer in crossflow [in German],
Tech. Mech. Thermodynam.,
I,
417-422 (1930).
21. Mason,
J.
L., Heat transfer in crossflow,
Proceedings
of
the Second
U.S.
National Congress
of
Applied Mechanics,
ASME, New York, 1955, pp. 801-803.
22.
Baclic, B.
S.,
A simplified formula for crossflow heat exchanger effectiveness,
Tram.
ASME,
J.
Hear Transfer,
100,
746-747 (1978).
23.
Eckert, E. R. G.,
Heat Transfer,
2nd edition, McGraw-Hill, New York, 1959, p. 483.
24.
Taborek,
J.,
F
and
8
charts for crossflow arrangements, in
Hear Exchanger Design Handbook,
Vol.
1,
Section 1.5.3 (E.
V.
Schlunder, editor-in-chief), Hemisphere, Washington, D.C., 1983,
pp.
I
S.3-
1-
1
s.3-15.
25a.
Pignotti, A., and Cordero,
G.
O.,
Mean temperature difference in multipass crossflow,
Tram. ASME,
J.
Heat Transfer,
105,
584-591 (1983).
25b. Pignotti, A., and Cordero, G.
O.,
Mean temperature difference charts for air coolers,
Tram.
ASME,
J.
Heat Transfer,
105,
592-597 (1983).
26a.
Pignotti, A., Analytical techniques for basic thermal design of complex heat exchanger configura-
tions,
Heat Transfer, Eighth International Conference,
San Francisco, 1986.
26b. Pignotti, A., Matrix formalism for complex heat exchangers,
Tram. ASME,
J.
Heat Transfer,
106,
352-360
(1
984).
27.
Schedwill, H., Thermische Auslegung von
Kreuzstromwarmeaustauschern,
Fortschr-Ber. VDI-2
Reihe 6 Nr. 19, VDI-Verlag, Dusseldorf, 1968.
28.
Nicole, F.
J.
L.,
Council for Scientific and Industrial Research, Rep. Chem. 223, Pretoria, South
Africa, 1972.
29.
Stevens, R. A., Fernandez,
J.,
and Woolf,
J.
R., Mean temperature difference in one, two, three-
pass crossflow heat exchangers,
Trans. ASME,
287-297 (1957).
30.
Nagle, W. M., Mean temperature difference in multipass heat exchanger,
Ind.
Eng. Chern.,
25,
604-609
(
1933).
31.
Baclic, B.
S.,
1-2N shell and tube exchanger effectiveness: A simplified Kraus-Kern equation,
Trans. ASME,
J.
Heat Transfer,
181-182 (1989).
32.
Pignotti, A., and Tamborenea, P. I., Thermal effectiveness of multiple shell and tube pass TEMA
E heat exchangers,
Tram. ASME,
J.
Heat Transfer,
111,
54-59 (1988).
33.
Whistler, A. M., Correction for heat conduction through longitudinal baffle of heat exchanger,
Trans. ASME,
683-685
(
1947).
34.
Rozenmann,
T.,
and Taborek,
J.,
The effect of leakage through the longitudinal baffle on the perfor-
mance of two pass shell exchangers,
Heat Transfer-Tufsa,
1972,
AIChE Symposium Series No.
118,
Vol.
68,
12-20 (1972).
35.
Taborek,
J.,
F
and
8
charts for shell and tube exchangers, in
Heat Exchanger Design Handbook,
Vol. 1, Section
1
S.2
(E.
V.
Schlunder, editor-in-chief), Hemisphere, Washington, D.C., 1983,
pp.
1.5.2-1-1.5.2-15.
36.
Schlinder,
D.
L., and Bates, H.
T.,
True temperature difference in a 1-2 divided flow heat exchanger,
Heat Transfer-Storrs, Chem. Eng. Prog. Symp. Ser.,
56,
203-206
(
1960).
37.
Murty, K.
N.,
Heat transfer characteristics of one- and two-pass split flow heat exchangers,
Heat
Transfer Eng.,
4,
(3-4), 26-34 (1983).
I040
References
38. Singh, K. P., and Holtz, M.
J.,
Generalization of the split flow heat exchanger geometry for
en-
hanced heat transfer,
Heat Transfer-San Diego, AIChE Symp. Ser.,
75,
219-226 (1979).
39.
Ishihara,
K.,
and Palen, J. W., Mean temperature difference correction factor for the TEMA H shell,
Proceedings
of
the Eigth International Heat Transfer Conference,
1986,
San Francisco, California
(C. L. Tien, V. P. Carey, and J.
K.
Ferrel, eds.), Hemisphere, Washington, D.C., pp. 2709-2714.
40.
Shah, R.
K.,
and Pignotti, A., Heat Exchanger Basic Design Theory and Resuls, A Report Prepared
Under NSF Grant No. INT-8513531, Buffalo, N.Y., 1989. TEMA G,., exchanger results are also
derived in this report by the chain rule methodology.
41.
Jaw, L., Temperature relations in shell and tube exchangers having one pass splitflow shells,
Truns.
ASME,
J.
Heat Transfer,
408-4 16
(
1964).
42a. Gardner, K.
A.,
Ind. Eng. Chem.,
33,
1495 (1941).
42b. Gardner, K. A.,
Ind. Eng. Chem.,
33,
1215 (1941).
43.
Pignotti, A., Effectiveness of series assemblies of divided-flow heat exchanger,
Trans.
ASME,
J.
Heat Transfer,
208,
141-146 (1986).
44.
Domingos, J.
D.,
Analysis
of
complex assemblies of heat exchangers,
Int.
J.
Heat Mass Transfer,
12,
537-548 (1969).
45.
Baclic, B.
S.,
and Gvozdenac, D. D., Exact explicit equations for some two- and three-pass cross-
flow heat exchanger effectiveness, in
Heat Exchangers: Thermal-Hydraulic Fundamentals and Dc-
sign
(S.
Kakac, A. E. Bergles, and
F.
Mayinger, eds.), Hemisphere, Washington, D.C., 1981,
pp.
48 1-494.
46.
Baclic, B.
S.,
and Gvozdenac, D. D., NTU relationships for inverted order flow arrangements of
two-pass crossflow heat exchangers, in
Regenerative and Recuperative Heat Exchangers
(R.
K.
Shah and D. E. Metzger, eds.), ASME, New York, 1981, Vol. 21, pp. 27-41.
Bibliography
1. Cho,
S.
M., Basic thermal design methods for heat exchangers, in
Heat Transfer Equipment Design
(R. K. Shah, E. C. Subbarao, and R. A. Mashelikar, eds.), Hemisphere, Washington, D.C., 1988,
pp.
23-38.
2.
Effectiveness-Ntu Relationships for Design and Performance Evaluation of Two-Stream Heat
Ex-
changers, Engineering Sciences Data Unit Item No. 86018, July 1986, ESDU International Ltd.,
McLean, Va.
3.
Effectiveness-Ntu Relationships for the Design and Performance Evaluation of Multi-Pass Crossflow
Heat Exchangers, Engineering Sciences Data Unit Item No. 87020, October 1987, ESDU Interna-
tional Ltd., McLean, Va.
4.
Kays, W. M., and London, A. L.,
Compact Heat Exchangers,
third edition, McGraw-Hill, New York,
1984.
5.
Gardner, K. A., and Taborek,
J.,
Mean temperature difference: A reappraisal,
AIChE
J.,
23,
777-786
(1977).
CHAPTER
3
1.
Shah, R. K., Heat exchanger design methodology, in
Heat Transfer Equipment Design
(R.
K.
Shah,
E.
C. Subbarao, and R. A. Mashelikar, eds.), Hemisphere, Washington, D.C., 1988, pp. 17-22.
2.
Kays,
W.
M., and London, A.
L.,
Compact Heat Exchangers,
third edition, McGraw-Hill, New
York, 1984.
3.
Shah,
R.
K.,
and Bhatti, M.
S.,
Assessment of correlations for single-phase heat exchangers, in
Two-Phase Flow Heat Exchangers-Thermal-Hydraulic Fundamentals and Design
(S.
Kakac,
A.
E. Bergles, and F.
E.
Oliveira, eds.), Kluwer Academic Publishers, London, 1988, pp. 81-122.
4.
Gollin, M., Heat exchanger design and rating, in
Handbook
of
Applied Thermal Design
(E.
C.
Guyer, ed.), McGraw-Hill, New York, 1984, pp. 7-24-7-36.
5.
Shah, R.
K.,
Compact heat exchanger design procedures, in
Heat Exchangers: Thermal Hydrciulic
References
1041
Fundamentals and Design
(S.
Kakac, A.
E.
Bergles, and
F.
Mayinger, eds.), Hemisphere, Washing-
ton, D.C., 1981, pp. 495-536.
6.
Bell,
K.
J.,
Delaware method for shellside design, in
Heat Transfer Equipment Design
(R. K. Shah,
E. C. Subbarao, and R. A. Mashelkar, eds.), Hemisphere, Washington, D.C., 1988, pp. 145-166.
7.
Cardwell, Optimum tube size for shell and tube type heat exchangers,
Trans.
of
the ASME,
72,
November
1
950, pp. 106
1
-
1065.
8.
Shah, R. K., Afimiwala, K. A., Mayne,
R.
W., Heat exchanger optimization, in
Heat Transfer,
Vol.
4, Hemisphere, Washington, D.C., 1978, pp. 185- 19 1.
9.
Shah, R.
K.,
and Mueller,
A.
C., Heat exchanger basic thermal design methods, in
Handbook of
Heat Transfer Applications,
second edition (W. M. Rohsenow,
J.
P. Hartnett, and
E.
N.
Ganic,
eds.), McGraw-Hill, New York, 1985, pp. 4-1-4-77.
10.
Shah, R.
K.,
Heat exchanger basic design methods, in
LOM~
Reynolds Number
Flow,
Heat Escharzgers
(S.
Kakac, R.
K.
Shah, and A.
E.
Bergles, eds.), Hemisphere, Washington, D.C., 1983, pp. 21-71.
11.
Chenoweth,
J.
M., and Kistler, R.
S.,
Computer Program as a Tool for Heat Exchanger Rating and
Design, ASME Paper No. 76-WA/HT-4, 1976.
12.
Taborek,
J.,
Evolution of heat exchanger design techniques,
Heat Transfer Eng.,
1,
15-29 (1979).
13.
Shah, R.
K.,
Compact heat exchanger surface selection, optimization, and computer aided thermal
design, in
Low Reynolds Number Flow Heat Exchangers (S.
Kakac, R.
K.,
Shah, and A. E. Bergles,
eds.), Hemisphere, Washington, D.C., 1983, pp. 983-998.
14.
Kays, W. M., Loss coefficients for abrupt changes in flow cross section with low Reynolds number
flow in single and multiple tube system,
Truns. ASME,
1067-1074 (1950).
15.
Shah, R.
K.,
Personal Communication, dt. 3.1.1998. Senior Staff Research Scientist, Heat Ex-
changer Development, DELPHI Harrison Thermal Systems, Lockport, NY.
16.
Kays, W.
K.,
and Perkins, H. C., Forces convection, internal flow in ducts, in
Handbook of Heat
Transfer
(W. M. Rohsenow and
J.
P., Hartnett, eds.), McGraw-Hill, New York, 1973.
17.
Sleicher, C.
A.,
and Rouse, M. W., A convenient correlation for heat transfer to constant and
variable property fluids in turbulent pipe flow,
Int.
J.
Heat Mass Transfer,
18,
677-683 (1975).
18.
Kays, W. M., and Crawford, M. E.,
Convective Heat and
Mass
Transfer,
second edition, McGraw-
Hill, New York, 1980.
19.
Deissler, R. G., Analytical Investigation of Fully Developed Laminar How
in
Tubes with Heat
Transfer with Fluid Properties Variable Along the Radius, NACA TN 24
10,
195 1.
20.
Shannon, R. L., and Depew, C.
A.,
Forced laminar flow convection in a horizontal tube with
variable viscosity and free convection effects,
Truns. ASME
J.
Heat Transfer, 91,
25
1-258 (1969).
21.
Petukhov,
B.
S.,
Heat transfer and friction in turbulent pipe flow with variable physical properties,
in
Advances in Heat Transfer,
Vol. 6, 1970, pp. 503-564.
22.
Shah, R.
K.,
Compact heat exchangers, in
Handbook of Heat Transfer Applications
(W. M. Roh-
senow,
J.
P. Harnett, and
E.
N. Ganic, eds.), McGraw-Hill, New York, 1985, pp. 4-174-4-312.
23.
Minton, P.
E.,
Process heat transfer,
Proc. 9th Int. Heat Transfer Conf,
Heat Transfer
1990-Jerusa-
lem, Paper No. KN-22,
1,
355-362 (1990).
24.
Al-Zakir, A.
S.,
and Bell,
K.
J.,
Estimating performance when uncertainties exist,
Chent. Eng. Prog.,
77,
39-49 (1981).
25.
Cho,
S.
M., Uncertainty analysis of heat exchanger thermal hydraulic design,
Proceedings of the
ThermaVMechanical Heat Exchanger Design-Karl Gardner Memorial Session,
(K. P. Singh and
S.
M. Shenkman, eds.),
64,
33-41 (1985).
26.
Mahbub Uddin, A. K. M., and Bell, K.
J.,
Effect of uncertainties on the design and operation of
systems
of
heat exchangers, in
Heat Transfer Equipment Design
(R.
K.
Shah,
E.
C. Subbarao, and
R. A. Mashelikar, eds.), Hemisphere, Washington, D.C., 1988, pp. 39-47.
27.
Haseler, L. E., Owen, R.
G.,
and Sardesai, R.
G.,
The sensitivity of heat exchanger calculations to
uncertainties in the physical properties of the process fluids, in
Practical Application of Heat Traits-
fer,
IMechE Conference Publications, 1982-84, C56/82, IMechE, London, pp.
1
1-20.
28.
Chiou,
J.
P., The Effect of Flow Nonuniformity on the Sizing
of
the Engine Radiator, 800035
SAE,
198 1, pp. 222-230.
I042
References
29.
Mueller, A. C., An inquiry of selected topics on heat exchanger design,
Chem. Eng. Prog. Symp.
Ser.,
73,
273-287 (1976).
30.
London, A.
L.,
Lamina flow gas turbine regenerators-the influence of manufacturing tolerances,
Trans. ASME,
J.
Eng. Power, Ser. A,
92,
46-56 (1970).
31.
Shah,
R.
K.,
and London, A. L., Effect of nonuniform passages on compact heat exchanger perfor-
mance,
Trans. ASME,
J.
Eng. Power,
102,
653-659 (1980).
32.
Mondt,
J.
R.,
Effects of nonuniform passages on deepfold heat exchanger performance,
Traits.
ASME,
J.
Eng. Power,
99,
657-663 (1977).
33.
Digiovanni, M. A., and Webb,
R.
L., Uncertainty in effectiveness for crossflow heat exchangers.
Heat Transfer Eng.,
10,
61-69 (1989).
34.
Shah,
R.
K.,
Nonuniform heat transfer coefficient for heat exchanger thermal design, in
Aerospuce
Heat Exchanger Technology
(R.
K.
Shah and A. Hashemi, eds.), Elsevier Science Publishers, Am-
sterdam,
1993,
pp. 417-445.
35.
Colburn, A. P., Mean temperature difference and heat transfer coefficient in liquid heat exchangers,
Ind. Eng. Chem.,
25,
873-877 (1933).
36.
Butterworth, D., Condensers: Thermal-hydraulic design, in
Heut Eschangers: Thernial-Hvdrciulic.
Fundamentals and Design
(S. Kakac, A. E. Bergles, and
F.
Mayinger, eds.), HemisphereNcGraw-
Hill, Washington, D.C., 1981, pp. 647-679.
37.
Sieder, E.
N.,
and Tate, G. E., Heat transfer and pressure drop
of
liquids in tubes,
Ind.
Ens.
Chem..
28,
1429-1435 (1936).
38.
Roetzel, W., Heat exchanger design with variable transfer coefficient for crossflow and mixed flow
arrangements,
Int.
J.
Heat Mass Transfer,
17,
1037-1049 (1974).
39.
Bowman,
R.
A., Muller, A. C., and Nagle, W. M., Mean temperature difference,
Traits.
ASME,
62,
283-294 (1940).
40.
Larowski, A., and Taylor, M.
A.,
Systematic Procedures for Selection
of
Heat Exchangers. C58/82,
Institution of Mechanical Engineers, London, 1982, pp. 32-56.
41.
Buckley, P. S., Statistical methods in process design,
Chem.
Eng.,
September, 112-1 14 (1950).
Bibliography
1.
Breber, G., Computer programs for design of heat exchangers, in
Heat Transfer Equipment Design
(R.
K.
Shah, E. C. Subbarao, and
R.
A. Mashelikar, eds.), Hemisphere, Washington, D.C., 1988, pp.
167- 178.
2.
Cho, S. M., Basic thermal design methods for heat exchangers, in
Heat transfer equipment design
(R.
K.
Shah, E. C. Subbarao, and
R.
A.
Mashelikar, eds.), Hemisphere, Washington, D.C., 1988,
pp.
23-38.
3.
Palen,
J.
W., Design of process heat exchanger by computers-A short history,
Heat Transfer, Eighth
International Conference-San Francisco,
1986, pp. 239-248.
4.
Pase,
G.
K.,
Computer programs for heat exchanger design,
Chem. Eng. Prog.,
70,
53-56 (1986).
5.
Bell,
K.
J.,
Overall design methodology for shell and tube exchangers, in
Heat Transfer Equipment
Design
(R.
K.
Shah,
E.
C. Subbarao, and
R.
A. Mashelkar, eds.), Hemisphere, Washington, D.C.,
1988, pp. 131-144.
6.
Lord,
R.
C., Minton,
P.
E., and Sulusser,
R.
P., Guide
to
trouble free heat exchangers, in
Process
Heut Eschange, Chemical Engineering Magazine
(V.
Cavaseno, ed.), McGraw-Hill. New York.
1979, pp. 60-67.
CHAPTER
4
1.
Shah,
R.
K.,
Compact heat exchangers for the process industry, in
Energy EfJiciency
in
Process
Technology,
(P. A. Pilavachi, ed.), Elsevier Applied Science, London, pp. 565-580.
2.
Shah,
R.
K.,
Compact heat exchanger technology, and applications, in
Heat Exchange Engineering,
Vol. 2,
Compact Heat Exchangers: Techniques
of
Size Reduction
(E. A. Foumeny and P.
J.
Heggs,
eds.), Ellis Horwood, New York, 1991, pp. 1-29.
References
I043
3.
Shah, R. K., Classification of heat exchangers, in
LOM~
Reynolds Nuniber Flo~t Heat Exchangers
(S.
Kakac, R. K., Shah, and A. E. Bergles, eds.), Hemisphere, Washington, D.C., 1983, pp. 9-14.
4.
Shah,
R.
K., Classification of heat exchangers, in
Heat Exchangers: Thernzal-Hydraulic Fundanieii-
tals and Design
(S.
Kakac, A. E. Bergles, and F. Mayinger, eds.), Hemisphere, Washington, D.C.,
1981, pp. 9-46.
5.
Webb,
R.
L.,
Enhancement of single phase heat transfer, In:
Handbook
of
Single Phase Corzirec.ti\fe
Heat Transfer,
Editors,
S.
Kakac,
R.
K. Shah, and
W.
Aung, Chapter 17, John Wiley
&
Sons, Inc.,
New York, 1987, pp. 17.1-17.62.
6.
Yang, W.-J., High performance heat transfer surfaces: Single phase flows,
Heat Transfer
in
Energy
Problems,
pp. 109-
1
16.
7.
Rabas, T. J., and Taborek, J., Survey of turbulent forced convection heat transfer and pressure drop
characteristics of low finned tube banks in crossflow,
Heat Transfer Eng.,
8,
49-61 (1987).
8.
Webb, R.
L.,
Enhancement for extended surface geometries used in air cooled heat exchangers, in
L m t
Reynolds Number Floni Heat Exchangers
(S.
Kakac, R. K., Shah, and
A.
E. Bergles, eds.),
Hemisphere, Washington, D.C., 1983, pp. 721 -734.
9.
Fraas, A. P., and Ozisik, M. N.,
Heat Exchanger Design,
John Wiley
&
Sons, New York, 1965.
10.
Webb,
R.
L.,
and Farrell, P.
A.,
Improved Thermal and Mechanical Design of CopperlBrass Radia-
tors, SAE, 900724, pp. 737-748.
11.
Shah,
R.
K., Compact heat exchanger surface selection methods. in Heat Transfer, Vol. 4, Hemi-
sphere, Washington, D.C., 1978, pp. 193-199.
12.
Bergles, A.
E.,
Blumenkrantz,
A.
R.,
and Taborek, J., Performance evaluation criteria for enhanced
heat transfer surfaces, in
Heat Transfer,
Vol. 11, JSME, 1974, pp. 239-243.
13.
Taylor, M.
A.,
ed.,
Plate-fin heat exchangers, guide
to
their specification and use,
HTFS (Harwell
Laboratory), Oxon, UK, 1980.
14.
Shah, R. K., Compact heat exchanger surface selection, optimization, and computer aided thermal
design, in
Low
Revnolds Nuniber
Flow
Heat Exchangers
(S.
Kakac, R. K. Shah, and A. E. Bergles,
eds.), Hemisphere, Washington, D.C., 1983, pp. 983-998.
15a.
Shah, R. K., Perforated Heat Exchanger Surfaces Part I-Flow Phenomena, Noise and Vibration
Characteristics, ASME Paper No. 75-WA/HT-8, 1975.
15a.
Shah, R. K., Perforated Heat Exchanger Surfaces. Part 2-Heat Transfer and Flow Friction Character-
istics, ASME Paper No. 75-WA/HT-9, 1975.
16.
Joshi, H.
M.,
and Webb,
R.
L.,
Heat transfer and friction
in
the offset strip-fin heat exchanger,
Inr.
J.
Heat Mass Transfer,
30,
69-84 (1987).
17.
Kays, W.
M.,
and London,
A.
L.,
Compact Heat Exchangers,
third edition, McGraw-Hill, New
York, 1984.
18.
Cowell, T. A., Heikal,
M.
R.,
and Achaichia,
A.,
Flow and heat transfer in compact louvred fin
surfaces, in
Aerospace Heat Exchanger Technology
(R.
K. Shah and A. Hashemi, eds.), Elsevier
Science Publishers, Amsterdam, 1993, pp. 549-560.
19.
Davenport, C. J., Correlations for heat transfer and flow friction characteristics of louvred fin,
Heat
Transfer-Seattle, AlChE Symposium Series,
No.
225,
79,
19-27 (1983).
20.
Shah, R. K., Surface Geometrical Properties-Tube-Fin Heat Exchangers, class notes for course no.
MEA 522, Spring 1993, pp. 413-418.
21.
Shah, R. K., Compact heat exchangers, in
Handbook
of
Heat Transfer Applications
(W. M. Roh-
senow, J. P. Harnett, and
E.
N. Ganic, eds.), McGraw-Hill, New York, 1985, pp. 4-176-4-312.
22a.
Idem,
S.
A., Jung, C., Gonzalez, and Goldschmidt, V. W., Performance of air-to-water copper
finned tube heat exchangers at moderately low airside Reynolds numbers, including the effects of
baffles,
Int.
J.
Heat Mass Transf,
30,
1733-1741 (1987).
22b.
Idem,
S.
A., Jacobi,
A.
M., and Goldschmidt, V.
W.,
Heat transfer characterization of a finned
tube heat exchanger (with and without condensation),
Trans. ASME,
J.
Heat Tran.$er.
112,
64-70
(1
990).
22c.
Hedderich, P. C., Kelleher, M. D., and Vanderplasts, G.
N.,
Design and optimization of air cooled
heat exchangers,
Trans. ASME,
J.
Heat Transfer,
104,
683-690 (1982).
23.
Kays, W. M., and London, A.
L.,
Heat transfer and flow friction characteristics of some compact