Marine rudders and control surfaces: Principles, data, design and applications

Marine Rudders and Control Surfaces: Principles, Data, Design and Applications

Volumn , Issue , 2007, Pages 1-420

  Molland, Anthony F ^a   Turnock, Stephen R ^a  

^a UNIVERSITY OF SOUTHAMPTON   (United Kingdom)

Author keywords

[No Author keywords available]

Indexed keywords

EID: 85133450880     PISSN: None     EISSN: None     Source Type: Book    
DOI: 10.1016/B978-0-7506-6944-3.X5000-8     Document Type: Book

References (368)

1. James A letter of James, Chapter 3, verse 4. The New English Bible 1961, Oxford University Press, Oxford.
2. Mott L.V. The Development of the Rudder: A Technological Tale 1997, Chatham Publishing, London.
3. Landström B The Ship 1961, Allen and Unwin, London.
4. Lavery B. Ship. 5000 years of Maritime Advanture 2005, National Maritime Museum. Dorling Kindersley Ltd., London.
5. Rougé J. Ships and Fleets of the Ancient Mediterranean 1981, (Translation by Susan Frazer), Wesleyan University Press, CT, USA.
6. Needham J. Science and Civilisation in China 1971, Vol. 4:627-656. Cambridge University Press, Cambridge, Pt. 3.
7. Sleeswyk A., Lehmann L. Pintle and gudgeon and the development of the rudder: the two traditions. Mariner's Mirror 1982, Vol. 68:279-303.
8. Xi L., Chalmers D.W. The rise and decline of Chinese shipbuilding in the Middle Ages. Transactions of The Royal Institution of Naval Architects 2004, Vol. 146:137-147.
9. Brindley H. Medieval rudders. Mariner's Mirror 1927, Vol. 13:85-88.
10. Hutchinson W. A Treatise on Naval Architecture 1969, 1794. New Impression, The Conway Maritime Press, London. 4th edition.
11. Jöessel Rapport sur des experiences relatives aux gouvernails. Memorial du Genie Maritime, Rapport 9 1873.
12. Lumley H. On the steering of ships. Transactions of the Royal Institution of Naval Architects 1864, Vol. 5:128-134.
13. Barnaby N. On the steering of ships. Transactions of the Royal Institution of Naval Architects 1863, Vol. 4:56-78.
14. Shulden M. On balanced rudders. Transactions of the Royal Institution of Naval Architects 1864, Vol. 5:123-127.
15. Halsted E.P. On screw ship steerage. Transactions of the Royal Institution of Naval Architects 1864, Vol. 5:82-113.
16. Denny M.E. The design of balanced rudders of the spade type. Transactions of the Royal Institution of Naval Architects 1921, Vol. 63:117-130.
17. Bottomley G.H. Manoeuvring of ships. Part II-Unbalanced rudders of twin screw ships. Transactions of the Institute of Engineers and Shipbuilders in Scotland 1923/24, Vol. 67:509-559.
18. Nomoto K., Taguchi T., Honda K., Hirano S. On the steering qualities of ships (1) and (2). Journal of the Society of Naval Architects of Japan 1956, Vols. 99 and 101. 1957.
19. Eda H., Crane C.L. Steering characteristics of ships in calm water and in waves. Transactions of SNAME 1965, Vol. 73:135-177.
20. Bunyan T.W. A study of the cause of some rudder failures. Transactions of The North East Coast Institution of Engineers and Shipbuilders 1951-1952, Vol. 68:313-330.
21. Ten year rudder analysis by Lloyd's Register. The Naval Architect March, 1976, 60. The Royal Institution of Naval Architects, London.
22. Standards for ship manoeuvrability. IMO Resolution MSC 2002, 137(76).
23. Russo V.L., Sullivan E.K. Design of the Mariner-Type ship. Transactions of the Society of Naval Architects and Marine Engineers 1953, Vol. 61:98-151.
24. Cusanelli D.S., Karafiath G. Advances in stern flap design and application. Proceedings of Sixth International Conference on Fast Sea Transportation FAST'2001 September, 2001.
25. Cusanelli D.S. Stern flap: An economic fuel-saving, go-faster, go-further device for the commercial vessel market. Proceedings of Seventh International Conference on Fast Sea Transportation, FAST'2003 October, 2003.
26. Tsai J.F., Hwang J.L., Chou S.K. Study on the compound effects of interceptors with stern flap for two fast monohulls with transom stern. Proceedings of Seventh International Conference on Fast Sea Transportion, FAST'2003 October, 2003.
27. Katayama T., Suzuki K., Ikeda Y. A new ship motion control system for high speed craft. Proceedings of Seventh International Conference on Fast Sea Transportation FAST'2003 October, 2003.
28. Brizzolara S. Hydrodynamic analysis of interceptors with CFD methods. Proceedings of Seventh International Conference on Fast Sea Transportation, FAST'2003 October, 2003.
29. Massey, B.S. and Ward-Smith I. Mechanics of Fluids, 7th edition. Stanley Thornes Ltd., Cheltenham.
30. Duncan, W.J., Thom, A.S. and Young, A.D. Mechanics of Fluids. Edward Arnold, Australia.
31. Grigson C.W.B. The drag coefficients of a range of ship surfaces. Transactions of the Royal Institution of Naval Architects 1981, Vol. 123:195-208.
32. Abbot I.H., Von Doenhoff A.E. Theory of Wing Sections 1958, Dover Publications, New York.
33. Prandtl L. Applications of modern hydrodynamics to aerodynamics. NACA Report No. 116 1921.
34. Gutsche F. Die induktion der axialen strahlzusatz-geschwindigheit in der umgebung der schraubenebene. Schiffstecknik 1955, (Heft 12/13).
35. Hatch G.N. Creative Naval Architecture 1971, Thomas Reed Publishing, London.
36. Du Cane P. High Speed Craft 1951, Temple Press Ltd., London.
37. Mikelis N.E. A procedure for the prediction of ship manoeuvring response for initial design. ICCAS '85 1985, North-Holland, Trieste.
38. Kose D. On a new mathematical model of manoeuvring motions of a ship and its applications. International Shipbuilding Progress August 1982, Vol. 29(No. 336):205-220.
39. Inoue S., Hirano M., Kijima K., Taskashina J. A practical calculation method of ship manoeuvring motion. International Shipbuilding Progress 1981, Vol. 28(No. 325):198-223.
40. Barnaby K. Basic Naval Architecture 1963, Hutchinson, London.
41. Carlton J.S. Marine Propellers and Propulsion 1994, Butterworth Heinemann, Oxford.
42. Harvald Sv.A.A. Resistance and Propulsion of Ships 1983, A Wiley Interscience, New York.
43. Bailey D. The NPL high speed round bilge displacement hull series. Maritime Technology Monograph No. 4 1976, The Royal Institution of Naval Architects, London.
44. Burcher R.K. Developments in ship manoeuvrability. Transactions of The Royal Institution of Naval Architects 1972, Vol. 114:1-32.
45. ITTC ITTC 1975 Manoeuvring trial code. 14th International Towing Tank Conference 1975.
46. IMO Resolution A. 751(18). Interim Standards for Ship Manoeuvrability 1993.
47. IMO Resolution MSC 137(76). Standards for Ship Manoeuvrability 2002.
48. Principles of Naval Architecture 1989, The Society of Naval Architects and Marine Engineers, New York. E.V. Lewis (Ed.).
49. Rawson K.J., Tupper E.O. Basic Ship Theory 2001, Butterworth Heinemann, Oxford. 5th edition.
50. 6. NACA R.M. L52G18 1952.
51. Whicker L.F., Fehlner L.F. Free stream characteristics of a family of low aspect ratio control surfaces for application to ship design. DTMB Report 933 December 1958.
52. Thieme H. Design of ship rudders. Jarbuch der Schiffbautechnischen Gesellschaft 1965, Vol 56. 1962 or DTMB Translation No. 321.
53. Hagen G.R. A contribution to the hydrodynamic design of rudders. Ministry of Defence, Third Ship Control Systems Symposium September 1972.
54. Kato H., Motora S. Studies on rudders with a flap. First report results of open water tests. Journal of Society of Naval Architects, Japan 1968, Vol. 124:93-104.
55. Kerwin J.E., Mandel P., Lewis S.D. An experimental study of a series of flapped rudders. Journal of Ship Research December 1972, 221-239. The Society of Naval Architects and Marine Engineers.
56. Goodrich G.J., Molland A.F. Wind tunnel investigation of semi balanced ship skeg-rudders. Transactions of the Royal Institution of Naval Architects 1979, Vol. 121:285-307.
57. Molland A.F. The Free-Stream Characteristics of Ship Skeg-Rudders. Ph.D. Thesis 1982, University of Southampton.
58. Gong I-Y., Kang G-G., Kim Y-G., You Y-B., Huh D., Kim Y-H. The influence of rudder area on the manoeuvrability of a ship with large beam-to-draught ratio. Proceedings of the Sixth International Symposium on Practical Design of Ships and Mobile Units, PRADS '95 1995.
59. Kang G-G., Gong I-Y., Kim S-Y., Yum D-J., Kim H-C., Ha M-K., Son B-R., Ahn S-P. The manoeuvrability of full form ships with low speed. Proceedings of International Symposium on Forces Acting on a Manoeuvring Vessel, MAN'98 1998.
60. Joessel Rapport sur des experiences relatives aux gouvernails. Memorial du Genie Maritime, Rapport 9 1873.
61. Johns A.W. Normal pressure on thin moving plates. Transactions of the Royal Institution of Naval Architects 1904, Vol. 45.
62. Denny M.E. The design of balanced rudders of the spade type. Transactions of the Royal Institution of Naval Architects 1921, Vol. 63:117-130.
63. Darnell, R.C. Hydrodynamic characteristics of twelve symmetrical hydrofoils. United States Model Basin, Report No. 341.
64. Abell T.B. Some model experiments on rudders placed behind a plane deadwood. Transactions of the Royal Institution of Naval Architects 1936, Vol. 78:135-144.
65. Voepel H. Tests on wings of small aspect ratio. Royal Aircraft Establishment. Translation No. 276 1948.
66. Flax A.H., Laurence H.R. The aerodynamics of low-aspect-ratio wings and wing-body combinations. Cornell Aeronautical Laboratory Report No. 37 1951.
67. Bartlett G.E., Vidal R.J. Experimental investigation on influence of edge shape on the aerodynamic characteristics of low aspect ratio wings at low speeds. Journal of Aeronautical Science 1955, (No. 8).
68. Windsor R.I. Wind tunnel tests of a DTMB NACA0015 aspect ratio 2, flapped surface. University of Maryland Report No. 268 1959.
69. Harrington R.L. Rudder torque prediction. Transactions of the Society of Naval Architects and Marine Engineers 1981, Vol. 89:23-90.
70. Hembold H.B. Der unverwundene ellipsenflügel als trägendeFläche. Jabrbuch der Deutschen Luftfabrt-forschung 1942, 111-113. Sect 1.
71. Polhamus E.C. A simple method of estimating the subsonic lift and damping in roll of sweptback wings. NACA, TN 1862 1949.
72. Molland A.F., Turnock S.R. Wind tunnel investigation of the influence of propeller loading on ship rudder performance. Transactions of the Royal Institution of Naval Architects 1993, Vol. 135:105-120.
73. Molland A.F. Rudder design data for small craft. University of Southampton, Ship Science Report No. 1/78 1978.
74. Abbot I.H., Von Doenhoff A.E. Theory of Wing Sections 1958, Dover Publications, New York.
75. Mandel P. Some hydrodynamic aspects of appendage design. Transactions of the Society of Naval Architects and Marine Engineers 1953, Vol. 61:464-515.
76. Burcher R.K. Developments in ship manoeuvrability. Transactions of The Royal Institution of Naval Architects 1972, Vol. 114:1-32.
77. Hoerner S.F. Fluid Dynamic Drag 1965, Published by the, author, New York.
78. Thiemann Von H. Windkanaluntersuchen von rechteckrudern mit staukeilen und profilkurzungen (in German). Schiff und Hafen, Heft 1 1962.
79. Kwik K.H. Windkanalunterschungen an einem modell eines schiffruders mit dem profil IfS 51 TR 25. HANSA-Schiffahrt-Schiffbau Hafen, 107, Jahrgang, Nr. 9 1970.
80. Kwik K.H. Sytematische windkanalversuche mit schiffsrudern. Schiffstechnik 1971, Bd. 18(Heft 92).
81. Kwik K.H. Comparative wind tunnel investigation of a rudder with fixed structure and an all-movable balance rudder. (in German). Institut für Schiffbau, Hamburg University, Report 285 March 1972.
82. Landgraf J. Increasing rudder effect by means of the propeller stream (in German). Hansa 110 (Special No. STG) November 1973.
83. Kracht A.M. Rudder in the slipstream of a propeller. Proceedings of International Symposium on Ship Resistance and Powering performance 1989.
84. Manoeuvring Technical Manual 1993, Seehafen Verlag, Hamburg. J. Brix (Ed.).
85. Sears R.I. Wind tunnel investigation of control surface characteristics. I-Effect of gap on the aerodynamic characteristics of a NACA 0009 Airfoil with a 30-percent-chord plain flap. Report L-377 June 1941, NACA.
86. Molland A.F., Turnock S.R. Wind tunnel investigation of the influence of propeller loading on a semi-balanced skeg rudder. University of Southampton, Ship Science Report No. 48 1993.
87. Molland A.F., Turnock S.R. Wind tunnel tests on the influence of zero speed operation. University of Southampton, Ship Science Report No. 64 1993.
88. Lumley H. On the steering of ships. Transactions of The Royal Institution of Naval Architects 1864, Vol. 5:128-134.
89. Ames M.B., Sears R.I. Pressure-distribution investigation of an NACA 0009 airfoil with a 30-percent chord plain flap and three tabs. T.N. No. 759 1940, NACA.
90. Street W.G., Ames M.B. Pressure-distribution investigation of an NACA 0009 airfoil with a 50-percent chord plain flap and three tabs. T.N. No. 734 1939, NACA.
91. Ames M.B., Sears R.I. Pressure-distribution investigation of an NACA 0009 airfoil with a 80-percent chord plain flap and three tabs. T.N. No. 761 1940, NACA.
92. Principles of Naval Architecture 1967, The Society of Naval Architects and Marine Engineers, New York. J.P. Comstock (Ed.).
93. Jaeger H.E. Approximate calculation of rudder torque and rudder pressures. International Shipbuilding Progress 1955, Vol. 2(No. 10):243-257.
94. Cowley W.L., Simmons L.F.G., Coales J.D. The effect of balancing a rudder, by placing the rudder axis behind the leading edge, upon the controlling moment of the motion. Technical Reports of the Advisory Committee for Aeronautics 1916-1917, 154.
95. Munk M. Systematische Versuche an Leitwerkmodellen. Technische Berichte der Flugzuegmeisterei 1917, 168.
96. Principles of Naval Architecture 1939, The Society of Naval Architects and Marine Engineers, New York. H.E. Rossell, L.B. Chapman (Eds.).
97. Bottomley G.H. Manoeuvring of ships-Semi-balanced rudders of twin screw ships. Transactions of the North East Coast Institution of Engineers and Shipbuilders 1931/32, Vol. 48:97-114.
98. Van Lammeren W.P.A., Troost L., Koning J.G. Resistance, Propulsion and steering of Ships 1948, The Technical Publishing Co., H. Stam-Haarlem, Holland.
99. Baker G.S., Bottomley G.H. Manoeuvring of ships. Part I-Unbalanced rudders of single screw ships. Transactions of the Institute of Engineers and Shipbuilders in Scotland 1921/22, Vol. 65:522-583.
100. Bottomley G.H. Manoeuvring of ships. Part II-Unbalanced rudders of twin screw ships. Transactions of the Institute of Engineers and Shipbuilders in Scotland 1923/24, Vol. 67:509-559.
101. Bottomley G.H. Manoeuvring of ships. Part III-Unbalanced rudders behind single screw ships, effect of varying fullness of form. Transactions of the Institute of Engineers and Shipbuilders in Scotland 1926/27, Vol. 70:463-500.
102. Bottomley G.H. Manoeuvring of ships. Part IV-Unbalanced rudders behind twin screw ships, effect of varying fullness of form. Transactions of the Institute of Engineers and Shipbuilders in Scotland 1930/31, Vol. 74:94-123.
103. Bottomley G.H. Manoeuvring of single screw ships-The effect of rudder proportions on manoeuvring and propulsive efficiency. Institution of Civil Engineers, Selected Engineering Papers 1935, (No. 175):1-18.
104. Cole A.P. Destroyer turning circles. Transactions of The Royal Institution of Naval Architects 1938, Vol. 80:32-57.
105. Gawn R.W.L. Steering experiments, Part I. Transactions of the Royal Institution of Naval Architects 1943, Vol. 85:35-73.
106. Lötveit M. A study of rudder action with special reference to single screw ships. Transactions of the NECIES 1958/59, Vol. 75:87-124.
107. Shiba H. Model experiments about the manoeuvrability and turning of ships. DTMB Report 1461 October 1960.
108. Okada S. On the performance of rudders and their designs. The Society of Naval Architects of Japan, 60th Anniversary Series 1966, Vol. 11:61-137.
109. English J.W., Rowe S., Bain D. Some manoeuvring devices for use at zero and low ship speed. Transactions of the NECIES 1972, Vol. 88:31-50.
110. Landgraf J. Increasing rudder effect by means of the propeller stream (in German). Hansa November 1973, 110. (Special No. STG).
111. Mathis P.B., Gregory D.L. Propeller slipstream performance of four high-speed rudders under cavitating conditions. US Naval Ship Research and Development Center, Report 4361 May 1974.
112. Kerwin J.E., Lewis S.D., Oppenheim B.W. Experiments on rudders with small flaps in a free-stream and behind a propeller. Report No. 74-16 1974, Department of Ocean Engineering, Massachusetts Institute of Technology.
113. Berlekom W.B.Van Effects of propeller loading on rudder efficiency. Royal Netherlands College, Proceedings of Fourth Ship Control Systems Symposium October 1975.
114. Kracht A.M. On propeller-rudder interaction. Proceedings of International Symposium on Propulsors and Cavitation 1992.
115. Kracht A.M. Ship-propeller-rudder interaction. Proceedings of Second International Symposium on Propulsors and Cavitation 1992.
116. Kracht A.M. Cavitation on rudders. Proceedings of International Conference on Propeller Cavitation, PROPCAV '95 1995.
117. Molland A.F., Turnock S.R. The prediction of ship rudder performance characteristics in the presence of a propeller. Computational Mechanics Publications 1992, 475-492.
118. Molland A.F., Turnock S.R. Developments in modelling ship rudder-propeller interaction. Computational Mechanics Publications 1994, 255-263.
119. Molland A.F., Turnock S.R. Prediction of ship rudder-propeller interaction at low speeds and in four quadrants of operation. Proceedings of conference Manoeuvring and Control of Marine Craft, MCMC '94 1994, 319-333.
120. Molland A.F., Turnock S.R. Some effects of rudder-propeller-hull arrangements on manoeuvring and propulsion. Proceedings of International Symposium on Practical Design of Ships and Mobile Units, PRADS '95 September 1995, 1.333-1.345.
121. Molland A.F., Turnock S.R., Smithwick J.E.T. Design studies of the manoeuvring performance of rudder-propeller systems. Proceedings of 7th International Symposium on Practical Design of Ships and Mobile Units, PRADS '98 September 1998, 807-816.
122. Molland A.F., Turnock S.R., Smithwick J.E.T. Design and performance characteristics of semi-balanced ship skeg rudders. Transactions of the Royal Institution of Naval Architects 2000, Vol. 142:230-247.
123. Turnock S.R. Prediction of ship rudder-propeller interaction using parallel computations and wind tunnel measurements. Ph.D. Thesis 1993, University of Southampton.
124. Molland A.F., Turnock S.R. Wind tunnel investigation of the influence of propeller loading on ship rudder performance. University of Southampton, Ship Science Report No. 46 1991.
125. Molland A.F., Turnock S.R. Preliminary wind tunnel investigation of the influence of propeller loading on a ship rudder in the bollard (J=0) condition. University of Southampton, Ship Science Report No. 49 1993.
126. Molland A.F., Turnock S.R. Further wind tunnel tests on the influence of propeller loading on ship rudder performance. University of Southampton, Ship Science Report No. 52 1992.
127. Molland A.F., Turnock S.R. Wind tunnel tests on the effect of a ship hull on rudder-propeller performance at different angles of drift. University of Southampton, Ship Science Report No. 76 1994.
128. Molland A.F., Turnock S.R., Smithwick J.E.T. Wind tunnel tests on the influence of propeller loading and the effect of a ship hull on skeg-rudder performance. University of Southampton, Ship Science Report No. 90 1995.
129. Molland A.F., Turnock S.R., Smithwick J.E.T. Investigation of the influence of propeller loading on a ship rudder in the bollard (J=0) condition. University of Southampton, Ship Science Report No. 94 1996.
130. Molland A.F. The design, construction and calibration of a five-component strain gauge wind tunnel dynamometer. University of Southampton, Ship Science Report No. 1/77 1976.
131. Turnock S.R. A test rig for the investigation of ship propeller/rudder interactions. University of Southampton, Ship Science Report No. 45 1990.
132. Van Lammeren W.P.A., Van Manen J.D., Oosterveld M.W.C. The Wageningen B-Screw Series. Transactions of the Society of Naval Architects and Marine Engineers 1969, Vol. 77.
133. Molland A.F., Turnock S.R. Wind tunnel test results for a model ship propeller based on a modified Wageningen B4.40. University of Southampton, Ship Science Report No. 43 1990.
134. Stierman E.J. The influence of the rudder on the propulsive performance of ships. Parts I and II. International Shipbuilding Progress 1989, Vol. 36(No. 407):303-334.
135. Stierman E.J. The influence of the rudder on the propulsive performance of ships. Parts I and II. International Shipbuilding Progress 1989, Vol. 36(No. 407):408.
136. Stierman E.J. The influence of the rudder on the propulsive performance of ships. Parts I and II. International Shipbuilding Progress 1989, Vol. 36(No. 407):405-435.
137. Nakatake K., Ando J., Tamashima M., Tashiro K. Interaction among twin screw propellers and twin rudders in uniform flow. Proceedings of 2nd International Symposium on Propellers and cavitation 1992.
138. Kracht A.M. Ruder im Schraubenstrahl (Rudder in the slipstream). VWS Report No. 1178/90, Versuchsanstalt für Wasserbau und Schiffbau, Berlin 1990, (in German).
139. Kracht A.M. Ship-propeller-rudder interaction. Proceedings of Second International Symposium on Propulsors and Cavitation 1992.
140. Molland A.F. Pressure-distribution investigation of a semi-balanced ship skeg-rudder. University of Southampton, Ship Science Report No. 5/81 1980.
141. Russo V.L., Sullivan E.K. Design of the mariner-type ship. Transactions of the Society of Naval Architects and Marine Engineers 1953, Vol. 61:98-151.
142. Sedat R., Fuller N. U.S. coast guard modular maneuvering tests. Proceedings of the 24th American Towing Tank Conference November 1995.
143. Carlton J.S. Marine Propellers and Propulsion 1994, Butterworth Heinemann, Oxford.
144. English J.W. Rudder performance at static thrust. The Naval Architect January, 2000, 31-32. The Royal Institution of Naval Architects, London.
145. Molland A.F., Turnock S.R., Wilson P.A. Performance of an enhanced rudder force prediction model in a ship manoeuvring simulator. Proceedings of International Conference on Marine Simulation and Ship Manoeuvrability, MARSIM '96 1996, 425-434.
146. Chislett M.S. A generalised math model for manoeuvring. Proceedings. of International Conference on Marine Simulation and Ship Manoeuvrability, MARSIM'96 1996, 593-606.
147. Molland A.F., Turnock S.R. Flow straightening effects on a ship rudder due to upstream propeller and hull. International Shipbuilding Progress 2002, 49(No. 3):195-214.
148. Ogawa A., Kasai H. On the mathematical model of the maneuvering of ships. International Shipbuilding Progress December 1978, Vol. 25:306-319.
149. Hirano M. A practical calculation method of ship maneuvering motion at initial design stage. Journal of The Society of Naval Architects, Japan June 1980, Vol. 147:68-80.
150. Nakatake K., Ando J., Tamashima M., Tashiro K. Interaction among twin screw propellers and twin rudders in uniform flow 1992.
151. Salo M., Heikkilä M. On the modelling of hull-propeller-rudder interactions in manoeuvring of twin screw ships. Proceedings of MARSIM and ICSM 1990.
152. Janke-Zhou Y. Manoeuvring motion simulation of twin-screw ships. Ship Technology Research 1994, Vol. 41:3-16.
153. Molland A.F. The free stream characteristics of a semi-balanced ship skeg rudder. University of Southampton, Ship Science Report No. 3/77 1977.
154. Molland A.F. Free stream tank test data for a spade rudder 1977, (Report unpublished).
155. Millward A. The design of spade rudders for yachts. Southampton University Yacht Research Report, SUYR No. 28 1969.
156. Harper J.J., Simitses G.J. Effect of a simulated submarine hull on the characteristics of all-movable control surfaces. Georgia Institute of Technology, report 439 August 1959.
157. Taplin A. Notes on rudder design practice. First Symposium on Ship Manoeuvrability October, 1960.
158. Myers P.A. Theory of sailing applied to ocean racing yachts. Marine Technology, Society of the Naval Architects and Marine Engineers 1975, Vol. 12(No. 3).
159. Sailing Yacht Design: Theory 2006, University of Southampton, Southampton. A. Claughton, J.F. Wellicome, R.A. Shenoi (Eds.).
160. DNV rules for classification of ships, Part 3, Ch. 3. Hull Equipment and Safety January 2006, Det Norske Veritas, Oslo.
161. Clarke D., Gedling P., Hine G. The application of manoeuvring criteria in hull design using linear theory. Transactions of the Royal Institution of Naval Architects 1983, Vol. 125:45-68.
162. Barnaby K. Basic Naval Architecture 1963, Huchinson, London.
163. Du Cane P. High Speed Craft 1951, Temple Press Ltd., London.
164. Performance Prediction of Small Craft. Royal Institution of Naval Architects, Occasional Publication 1974, No. 1.
165. Millward A. The induced drag of a vertical hydrofoil. Ph.D. Thesis 1967, University of Southampton.
166. Ismail K.A.R. The hydrodynamic theory of vertical swept hydrofoils near a free surface and comparison with measurement. Ph.D. Thesis 1973, University of Southampton.
167. Swales P.D., Cole B.N., Smith G.L. Some aspects of the ventilation of surface piercing struts and foils. Transactions of The Royal Institution of Naval Architects 1971, Vol. 113:365-374.
168. Swales P.D., McGregor R.C., Wright A.J. Correlation of force measurements and separated flow regions on surface piercing struts. Engineering Notes, Journal of Hydronautics 1974, Vol. 8(No. 2):72-73.
169. Gregory D.L., Dobay G.F. The performance of high-speed rudders in a cavitating environment. Paper Q, Spring Meeting of Society of Naval Architects and Marine Engineers 1973.
170. McGeough F.G., Millward A. The effect of cavitation on the rotating cylinder rudder. International Shipbuilding Progress 1981, Vol. 28(No. 317):2-9.
171. Shen Y.T., Remmers K.D., Jiang C.W. Effects of ship hull and propeller on rudder cavitation. Journal of Ship Research September 1997, Vol. 41(No. 3):172-180.
172. Friesch J. Erosion problems on fast high powered ships. Proceedings of Seventh International Conference on Fast Sea Transportation, FAST'2003 October, 2003.
173. Mevis F., Klug H. The challenge of very large container ships. Proceedings of Ninth International Symposium on Practical Design of Ships and other Floating Structures, PRADS'2004 September 2004.
174. ITTC Report of the specialist committee on cavitation erosion on propellers and appendages on high powered/high speed ships. Proceedings of 24th ITTC, Vol. II, Edinburgh, 2005 2005.
175. Eppler R., Shen Y.T. Wing sections for hydrofoils-Part I: Symmetrical profiles. Journal of Ship Research Sept. 1979, Vol. 23(No. 3):209-217.
176. Drela M. Xfoil: an analysis and design system for low Reynolds number aerofoils 1989.
177. Molland A.F., Bahaj A.S., Chaplin J.R., Batten W.M.J. Measurements and predictions of forces, pressures and cavitation on 2-D sections suitable for marine current turbines. Proceedings of Institute of Mechanical Engineers 2004, Vol. 218:127-138. Part M.
178. Brix J., Nolte A., Heinzel S. Konstruktive massnahmen zur verhinderung der kavitation an der rudersohle. HANSA, Nr. 16 1971.
179. Boo K-T., Song I-H., Shin S-C Numerical simulation for the rudder in order to control the cavitation phenomena. Journal of Ship and Ocean Technology 2004, Vol. 8(No. 1):42-50.
180. Han J-M., Kong D-S., Song I-H., Lee C-S. Analysis of the cavitating flow around the horn-type rudder in the race of a propeller. 4th International Conference on Cavitation CAV2001 2001.
181. Brix J., Baumgarten B. Development of a rudder having low cavitation and vibration, low drag and a Quasisymmetrical rudder torque. Forschungszentrum des Deutsch Schiffbaus, Report No. 152 1984, (in German).
182. Shen Y.T., Jiang C.W., Remmers K.D. A twisted rudder for reduced cavitation. Journal of Ship Research December 1997, Vol. 41(No. 4):260-272.
183. Twisted spade rudders for large fast vessels. The Naval Architect September, 2004, 49-50. Royal Institution of Naval Architects, London.
184. Twisted composite rudders ordered. Warship Technology October 2005, 3-4. Royal Institution of Naval Architects, London.
185. Jurgens A.J. Static and dynamic effects of rudder-hull-propeller interaction on fast monohulls. Proceedings of Eighth International Conference on Fast Sea Transportation, FAST'2005 June 2005.
186. Suhrbier K.R. An experimental investigation on the propulsive effect of a rudder in the propeller slipstream. International Shipbuilding Progress 1974, Vol. 21(No. 234):31-39.
187. English J.W. A note on rudder force at zero helm. Proceedings of 20th ITTC 1993, Vol. 2:85-89.
188. Glauert H. The Elements of Aerofoil and Airscrew Theory 1983, Cambridge University Press, Cambridge. 2nd edition.
189. Anderson J.D. Computational Fluid Dynamics: The Basics with Applications 1995, McGraw-Hill International Editions, New York.
190. Ferziger J.H., Peric M. Computational Methods for Fluid Dynamics 2004, Springer-Verlag.
191. Cebeci T., Shao J.P., Kafyeke F., Laurendeau E. Computational Fluid Dynamics for Engineers: From Panel to Navier-Stokes Methods with Computer Programs 2005, Springer, Berlin.
192. Katz J., Plotkin A. Low-Speed Aerodynamics: From Wing Theory to Panel Methods 1991, McGraw-Hill, New York.
193. Molland A.F. The free-stream characteristics of ship skeg-rudders. PhD Thesis 1981, University of Southampton.
194. Molland A.F. A method for determining the free-stream characteristics of ship skeg-rudders. International Shipbuilding Progress 1985, Vol. 32(No. 370):138-150.
195. Hess J.L. Panel methods in computational fluid dynamics. Annual Review of Fluid Mechanics 1990, Vol. 22:255-274.
196. Turnock S.R., Wright A.M. Directly coupled fluid structural model of a ship rudder behind a propeller. Marine Structures 2000, Vol. 13:53-72.
197. Lamb H. Hydrodynamics 1932, Cambridge University Press, Cambridge. 6th edition.
198. Turnock S.R. Technical manual and user guide for the surface panel code Palisupan. University of Southampton, Ship Science Report No. 100 1997.
199. Lee J.-T. A potential based method for the analysis of marine propellers in steady flow. PhD Thesis 1987, M.I.T.
200. Morino L., Kuo C.-C. Subsonic potential aerodynamics for complex configurations: a general theory. AIAA Journal 1974, Vol. 12(No. 2).
201. Newman J.N. Distribution of sources and normal dipoles over a quadrilateral. Journal of Engineering Mathematics 1986, Vol. 20:113-126.
202. Hess J.L., Smith A.M.O. Calculation of non-lifting potential flow around arbitrary three-dimensional bodies. Journal of Ship Research 1964, Vol. 8(No. 2).
203. Maitre T.A., Rowe A.R. Modelling of flow around a propeller using a potential based method. Journal of Ship Research 1991, Vol. 35(No. 2):114-126.
204. Schlichting H. Boundary Layer Theory 1968, McGraw-Hill, New York.
205. Ludwieg H, Tillmann W Investigations of the wall shearing stress in turbulent boundary layers. NACA Report TM 1285 1949.
206. Curle N The Laminar Boundary Layer Equations 1962, Oxford University Press, Oxford.
207. Cebeci T, Bradshaw P. Momentum Transfer in Boundary Layers 1977, Mcgraw-Hill, New York.
208. Versteeg H.K., Malalasekera W. An Introduction to Computational Fluid Dynamics 1995, Longman Scientific and Techical, Harlow.
209. Speziale C.G. Analytical methods for the development of Reynolds-stress closures in turbulence. Annual Review of Fluid Mechanics 1991, Vol. 23:107-157.
210. Reynolds O On the dynamical theory of incompressible viscous fluids and the determination of the criterion. Philosophical Transactions of the Royal Society, Series A 1895, Vol. 186:123-164.
211. Wilcox D.C. Turbulence Modelling for CFD 1998, D.C.W. Industries, La Canada, CA.
212. Boussinesq J. Essai Sur La Theorie Des Eaux Courantes. Mem. Present'es Acad. Sci. 1877, Vol. 25.
213. Pashias C. Propeller tip vortex simulation using adaptive grid refinement based on flow feature identification. PhD Thesis 2005, University of Southampton.
214. Launder B.E., Spalding D.B. The numerical computation of turbulent flows. Computer Methods in Applied Mechanics and Engineering 1974, Vol. 3:269-289.
215. WS Atkins Ltd. Best practice guidelines for marine applications of computational fluid dynamics accessed. https://pronet.wsatkins.co.uk/marnet/publications/bpg.pdf.
216. Creismeas P. Application de la LES Implicite a Letude d'un Ecoulement Autour D'un Profil NACA0012. 7th Journees De L'Hydrodynamique 8-10 March, 1999.
217. Gleick J. Chaos, the Amazing Science of the Unpredictable 1988, William Heinemann, London.
218. Blottner F.G. Accurate Navier-Stokes results for the hypersonic flow over a spherical nosetip. Journal of Spacecraft and Rockets 1990, Vol. 27(No. 2):113-122.
219. Stern F., Coleman H.W., Wilson R.V., Paterson E.G. Verification and validation of CFD simulations. Proceedings of the 3rd ASME/JSME Joint Fluids Engineering Conference July 18-23, 1999.
220. Richardson L.F. The deferred approach to the limit. Transactions of the Royal Society, London Series A 1927, Vol. 226:229-361.
221. Eça L., Hoekstra M. On the numerical verification of ship stern flow calculations. MARNET-CFD, 1st Annual Worshop 18-19 November, 1999.
222. Date J.C. Performance prediction of high lift rudders operating under steady and peiodic flow conditions. PhD Thesis 2002, University of Southampton, California.
223. Margesson R.J., Kjelgaard S.O., Sellers W.L., Morris C.E.K., Walkley K.B., Shields E.W. Subsonic panel methods - a comparison of several production codes. Proceedings of AIAA 23rd Aerospace Science Meeting Jan 1985.
224. Stück A., Turnock S.R., Bressloff N.W. An evaluation of the RANS method for the prediction of steady rudder ship rudder performance compared to wind tunnel measurements. University of Southampton, Ship Science Report No. 130 2004, 1-64.
225. El Moctar O.A.M. Berechung von ruderkraften. Institut für Schiffbau der Universitat Hamburg, Bericht 582 1997.
226. Tsakonas S., Jacobs W.R., Ali M.R. Application of the unsteady lifting-lifting-surface theory to the study of propeller-rudder interaction. Journal of Ship Research 1970, Vol. 14(No. 3):181-194.
227. Cho J., Williams M. Propeller-wing interaction using a frequency domain panel method. Journal of Aircraft 1990, Vol. 27(No. 3).
228. Molland A.F., Turnock S.R. A compact computational method for predicting forces on a rudder in a slipstream. Transactions of The Royal Institution of Naval Architects 1996, Vol. 138:227-244.
229. Eckhard M.K., Morgan W.B. A propeller design method. Transactions of Society of Naval Architects and Marine Engineers 1955, Vol. 63.
230. Gutsche F. Die induction der axialen strahlzusatzgeschwindigheit in der umgebung der schraubenebene. Schiffstechnik 1955, (Heft 12/13).
231. Li D.-Q. Non-linear method for the propeller-rudder interaction with the slipstream deformation taken into account. Computer Methods in Applied Mechanics and Engineering 1996, Vol. 130(No. 1-2):115-132.
232. Guo C., Huang S. Study of the rudder with additional thrust fins used by non-linear vortex lattice method. Journal of Huazhong University of Science and Technology 2006, Vol. 34(No. 6):87-89.
233. Willis C.J., Crapper G.D., Millward A. A numerical study of the hydrodynamic forces developed by a marine rudder. Journal of Ship Research 1994, Vol. 38(No. 3):182-192.
234. Turnock S.R., Molland A.F., Wellicome J.F. Interaction velocity field method for predicting ship rudder-properller interaction. Proceedings of SNAME Propeller/Shafting Sympsium, Paper 18 1994, 1-14.
235. Tamashima M., Matsui S., Yang J., Mori K., Yamazaki R. The method for predicting the performance of propeller-rudder system with rudder angle and its application to rudder design. Transactions of the West-Japan Society of Naval Architects 1993, Vol. 85.
236. Söding H. Limits of potential theory in rudder flow predictions. Ship Technology Research 1998, Vol. 45(No. 3):141-155.
237. Laurens J.-M., Grosjean F. Numerical simulation of the propeller-rudder interaction. Ship Technology Research 2002, Vol. 49(No. 1):3-12.
238. Felli M., Greco L., Colombo C., Salvatore F., Di Felice F., Soave M. Experimental and theoretical investigations of propeller-rudder interaction phenomena. Proceedings of 26th Symposium on Naval Hydrodynamics Sept. 2006.
239. Turnock S.R. Prediction of ship rudder-propeller interaction using parallel computations and wind tunnel measurements. PhD Thesis 1993, University of Southampton.
240. Turnock S.R. A transputer based parallel algorithm for surface panel analysis. Ship Technology Research Schiffstechnik 1994, Vol. 41(No. 2):93-104.
241. Laurens J.-M. Unsteady hydrodynamic behaviour of a rudder operating in the propeller slipstream. Ship Technology Research 2003, Vol. 50(No. 3):141-148.
242. Simonsen C.D., Stern F. RANS manoeuvring simulation of ESSO OSAKA with rudder and a body-force propeller. Journal of Ship Research 2005, Vol. 49(No. 2):98-121.
243. Abdel-Maksoud M., Karsten R. Unsteady numerical investigation of the turbulent flow around the container ship model (KCS) with and without propeller. Proceedings of Gothenburg 2000, A Workshop on Numerical Ship Hydrodynamics 2000.
244. Schetz J.A., Favin S. Numerical solution for the near wake of a body with propeller. Journal of Hydronautics 1977, Vol. 11(No. 10):136-141.
245. B=0.6 ship model. Journal of Ship Research 1994, Vol. 38(No. 2):137-157.
246. Tzabiras G.D. A numerical study of additive bulb effects on the resistance and self-propulsion characteristics of a full ship form. Ship Technology Research 1997, Vol. 44:98-108.
247. McDonald H., Whitfield D.L. Self-propelled manoeuvring underwater vehicles. 21st Symposium on Naval Hydrodynamics 1996, 478-489.
248. Proceedings of CFD Workshop 2005, T. Hino (Ed.).
249. Report of Resistance Committee. Proceedings of 24th ITTC 2005, Vol. I:17-72.
250. Lewis E.V. Principles of Naval Architecture 1988, SNAME, New York.
251. McCroskey W.J. Unsteady airfoils. Annual Review Fluid Mechanics 1982, Vol. 14:285-311.
252. Paterson E.G., Stern F. Computation of unsteady viscous marine-propulsor blade flows. Part 1: Validation and analysis. Journal of Fluids Engineering 1997, Vol. 119:145-154.
253. Theodorsen T. General theory of aerodynamic instability and the mechanism of flutter. NACA Report 496 1935.
254. Von Karman T., Sears W.R. Airfoil theory for non-uniform motion. Journal of the Aeronautical Sciences 1938, Vol. 5(No. 10):379-390.
255. Sears W.R. Some aspects of non-stationary airfoil theory and its practical application. Journal of the Aeronautical Sciences 1941, Vol. 8(No. 3):104-108.
256. Horlock J.H. Fluctuating lift forces on aerofoil moving through transverse and chord-wise gusts. Journal of Basic Engineering December, 1997, 494-500.
257. Poling D.R., Telionis D.P. The response of airfoils to periodic disturbances-the unsteady Kutta condition. AIAA Journal 1986, Vol. 24(No. 2):193-199.
258. Rice J.Q. Investigation of a two-dimensional hydrofoil in steady and unsteady flows. S.M. Thesis 1991, Department of Ocean Engineering, M.I.T.
259. Delpero P.M. Investigation of flows around a two-dimensional hydrofoil subject to a high reduced frequency gust loading. S.M. Thesis 1992, Department of Ocean Engineering, MIT.
260. Kinoshita M., Okada S. On the twisting moment acting upon a ship's rudder stock. International Shipbuilding Progress 1955, Vol. 2(No. 9):230-240.
261. Jöessel Rapport sur des experiences relatives aux gouvernails. Memorial du Genie Maritime, Raport 9 1873.
262. Denny M.E. The design of balanced rudders of the spade type. Transactions of the Royal Institution of Naval Architects 1921, Vol. 63:117-130.
263. Baker G.S., Bottomley G.H. Manoeuvring of ships. Part I-Unbalanced rudders of single screw ships. Transactions of the Institute of Engineers and Shipbuilders in Scotland 1921/1922, Vol. 65:522-583.
264. Bottomley G.H. Manoeuvring of ships. Part II-Unbalanced rudders of twin screw ships. Transactions of the Institute of Engineers and Shipubilders in Scotland 1923/1924, Vol. 67:509-559.
265. Bottomley G.H. Manoeuvring of ships. Part III-Unbalanced rudders behind single screw ships, effect of varying fullness of form. Transactions of the Institute of Engineers and Shipbuilders in Scotland 1926/1927, Vol. 70:463-500.
266. Bottomley G.H. Manoeuvring of ships. Part IV-Unbalanced rudders behind twin screw ships, effect of varying fullness of form. Transactions of the Institute of Engineers and Shipbuilders in Scotland 1930/1931, Vol. 74:94-123.
267. Bottomley G.H. Manoeuvring of ships-Semi-balanced rudders of twin screw ships. Transactions of the North East Coast Institution of Engineers and Shipbuilders 1931/1932, Vol. 48:97-114.
268. Bottomley G.H. Manoeuvring of single screw ships - The effect of rudder proportions on manoeuvring and propulsive efficiency. Institution of Civil Engineers, Selected Engineering Papers 1935, No. 175:1-18.
269. Abell T.B. Some model experiments on rudders placed behind a plane deadwood. Transactions of the Royal Institution of Naval Architects 1936, Vol. 78:135-144.
270. Gawn R.W.L. Steering experiments, Part I. Transactions of the Royal Institution of naval Architects 1943, Vol. 85:35-73.
271. Van Lammeren W.P.A., Troost L., Koning J.G. Resistance, Propulsion and Steering of ships 1948, The Technical Publishing Co, H. Stam-Haarlem, Holland.
272. Attwood E.L., Pengelly H.S. Theoretical Naval Architecture 1953, revised by A.J. Sims, Longmans, Green and Co., London.
273. Lamb B.J., Cook S.B. A practical approach to rudder design. Shipbuilding and Shipping Record September 1961, 334-336.
274. Mandel P. Some hydrodynamic aspects of appendage design. Transactions of the Society of Naval Architects and Marine Engineers 1953, Vol. 61:464-515.
275. Jaeger H.E. Approximate calculation of rudder torque and rudder pressures. International Shipbuilding Progress 1955, Vol. 2(No. 10):243-257.
276. Gover S.C., Olsen C.R. A method for predicting the torque of semi-balanced centreline rudders on multiple-screw ships. DTMB Rep. 915 1954.
277. Hagen G.R. A contribution to the hydrodynamic design of rudders. Ministry od Defence, Third Ship Control Systems Symposium September 1972.
278. Whicker L.F., Fehlner L.F. Free stream characteristics of a family of low aspect ratio control surfaces for application to ship design. DTMB Report 933 December 1958.
279. Taplin A. Notes on rudder design practice. DTMB Report 1461 October 1960.
280. Romahn K., Thieme H. On the selection of balance area for rudders working in the slipstream (in German). Schiffstechnic 1957, No. 21.
281. Thieme H. Design of ship rudders. Jarbuch der Schiffbautechnischen Gesellschaft, Vol. 56, 1962 or DTMB Translation No. 321 1965.
282. Okada S. On the performance of rudders and their designs. The Society of Naval Architects of Japan, 60th Anniversary Sereis 1966, Vol. 11:61-137.
283. Harrington R.L. Rudder torque prediction. Transactions of the Society of Naval Architects and Marine Engineers 1981, Vol. 89:23-90.
284. Millward A. The design of spade rudders for yachts. Southampton University YachtResearch Report, SUYRN No. 28 1969.
285. Molland A.F. Rudder design data for small craft. University of Southampton, Ship Science Report No. 1/78 1978.
286. Manoeuvring Technical Manual 1993, Seehafen Verlag, Hamburg. J. Brix (Ed.).
287. Son D.I., Ahn J.H., Rhee K.P. An empirical formula for steering gear torque of tankers with a horn rudder. Proceedings of the 8th International Symposium on Practical Design of Ships and Mobile Units, PRADS'2001 2001.
288. Kresic M. Estimating hydrodynamic force and torque acting on a horn-type rudder. Marine Technology April 2002, Vol. 39(No. 2):118-136.
289. Molland A.F. A method for determining the free-stream characteristics of ship skeg-rudders. International Shipbuilding Progress June 1985, Vol. 32(No. 370):138-150.
290. Goodrich G.J., Molland A.F. Wind tunnel investigation of semi-balanced ship skeg-rudders. Transactions of the Royal Institution of Naval Architects 1979, Vol. 121:285-307.
291. Molland A.F., Turnock S.R. Flow straightening effects on a ship rudder due to upstream propeller and hull. International Shipbuilding Progress 2002, 49(No. 3):195-214.
292. Smithwick J.E.T. Enhanced design performance prediction method for rudders operating downstream of a propeller. Ph.D. Thesis 2000, University of Southampton, UK.
293. Molland A.F., Turnock S.R., Smithwick J.E.T. Design studies of the manoeuvring performance of rudder-propeller systems. Proceedings of the 7th International Symposium on Practical Design of Ships and Mobile Units, PRADS'98 September 1998, 807-816.
294. Lloyds Register of Shipping Rules and Regulations for the Classification of Ships Ship Control Systems, Part 3, Chapter 13 July 2005.
295. DNV Rules for Classification of Ships, Part 3, Chapter 3, Hull Equipment and Safety January 2006, Det Norske Veritas, Oslo.
296. American Bureau of Shipping Guide for building and classing Motor Pleasure Yachts 1990.
297. American Bureau of Shipping Guide for building and classing Offshore Racing Yachts 1994.
298. Germanischer Lloyd Rules for Classification and Construction 2006.
299. ISO Draft International Standard: Hull Construction-Scantlings-Rudders. ISO/DIS 12215-12218 2005.
300. Eda H., Crane C.L. Steering characteristics of ships in clam water and in waves. Transactions of the Society of Naval Architects and Marine Engineers 1965, Vol. 73:135-177.
301. Eda H. Notes on ship controllability. Society of Naval Architects and Marine Engineers Bulletin April 1983, (No. 1-41).
302. Eda H. Shiphandling simulation study during preliminary ship design. Proceedings of Fifth CAORF Symposium May 1983.
303. Becker L.A., Brock J.S. The experimental determination of rudder forces during trials of USS Norfolk. Transactions of the Society of Naval Architects and Marine Engineers 1958, Vol. 66:310-344.
304. Taplin A. Sea trials for measuring rudder torque and force. Proceedings of Fourth Ship Control Systems Symposium 1975, Vol. 5:99-115. Royal Netherlands Naval Colle, The Hague.
305. Clarke D., Patterson D.R., Wooderson R.K. Manoeuvring trials with the 193,000 Tonne deadweight tanker 'Esso Bernicia'. Transactions of the Royal Institution of Naval Architects 1973, Vol. 114:89-109.
306. Molland A.F., Turnock S.R., Wilson P.A. Performance of an enhanced rudder force prediction model in a ship manoeuvring simulator. Proceedings of International Conference on Marine Simulation and Ship Manoeuvrability, MARSIM'96 1996, 425-434.
307. Gutsche F. The study of ships' propellers in oblique flow. Schiffbauforschung 1964, 3(3/4):97-122. Translation from German, DRIC Translation No.4306.
308. Hadler J.B. The prediction of power performance of planing craft. Transactions of The Society of Naval Architects and Marine Engineers 1966, Vol. 74.
309. Peck J.G., Moore D.H. Inclined-shaft propeller performance characteristics. Paper G Society of Naval Architects and Marine Engineers, Spring Meeting April 1973.
310. Hirano M.A. Practical calculation method of ship manoeuvring motion at initial design stage. The Society of Naval Architects of Japan, Naval Architecture and Ocean Engineering 1981, Vol. 19:68-80.
311. Gong I-Y., Kang G-G., Kim Y-G., You Y-B., Huh D., Kim Y-H. The influence of rudder area on the manoeuvrability of a ship with large beam-to-draught ratio. Proceedings of The Sixth International Symposium on Practical Design of Ships and Mobile Units, PRADS '95 1995.
312. Principles of Naval Architecture 1989, The Society of Naval Architects and Marine Engineers, New York. E.V. Lewis (Ed.).
313. Shiba H. Model experiments about the manoeuvrability and turning of Ships. DTMB Report 1461 October 1960.
314. Mandel P. Some hydrodynamic aspects of appendage design. Transactions of The Society of Naval Architects and Marine Engineers 1953, Vol. 61:464-515.
315. Manoeuvring Technical Manual 1993, Seehafen Verlag, Hamburg. J. Brix (Ed.).
316. Oltman P., Sharma S.D. Simulation of combined engine and rudder manoeuvres using an improved model of hull-propeller interactions. 15th ONR Symposium on Naval Hydrodynamics 1984.
317. Abkowitz M.A. A manoeuvring simulation model for large angles of attack and backing propellers. Proceedings of 19th ITTC 1990, Vol. 2. Madrid.
318. Shouji K., Ishiguru T., Mizoguchi S. Hydrodynamic forces by propeller and rudder interaction at low speed. Proceedings of MARSIM and ICSM 1990.
319. Kang G-G., Gong I-Y., Kim S-Y., Yum D-J., Kim H-C., Ha M-K., Sen B-R., Ahn S-P. The manoeuvrability of full form ships with low speed. Proceedings of International Symposium on Forces Acting on a Manoeuvring Vessel, MAN'98 1998.
320. Bingham V.P., Mackey T.P. High performance rudders with particular reference to the Schilling rudder. Marine Technology October 1987, Vol. 24(No. 4):312-320.
321. Date J.C. Performance prediction of high lift rudders operating under steady and periodic flow conditions. Ph.D. Thesis 2001, University of Southampton, UK.
322. English J.W., Rowe S., Bain D. Some manoeuvring devices for use at zero and low ship speed. Transactions of NECIES 1972, Vol. 88:31-50.
323. Choi B., Park H., Kim H., Lee S.H. An experimental evaluation on the performance of high lifting rudder under Coanda effect. 9th Symposium on Practical Design of Ships and Other Floating Structures, PRADS'2004 2004, 329-336.
324. Steele B., Harding M. The application of rotating cylinders to ship manoeuvring. National Physical Laboratory, Ship Report 148 1970.
325. Cordier S. Design of control surfaces with rotating cylinders. Computational Mechanics Publications 1992, 503-518.
326. McGeough F.G., Millward A. The effect of cavitation on the rotating cylinder rudder. International Shipbuilding Progress 1981, Vol. 28(No. 317):2-9.
327. The Schilling rudder-10 years on. The Naval Architect April 1985, E185. The Royal Institution of Naval Architects, London.
328. Guarino S.J. The slot augmented, flap effect rudder. 8th International Tug Convention 1984, Organised by, Thomas Reed Publications Ltd., Singapore.
329. High performance rudders for improved shiphandling. The Naval Architect March 1979, 53-54. The Royal Institution of Naval Architects, London.
330. Kijima K., Katsuno T., Nakiri Y., Furakawa Y. On the manoeuvring performance of a ship with the parameter of loading condition. Journal of the Society of Naval Architects of Japan 1990, Vol. 168:141-148.
331. Kijima K., Tanaka S., Matsunga M., Hori T. Manoeuvring characteristics of a ship in deep and shallow waters as a function of loading condition. Proceedings of Conference, Manoeuvring and control of marine craft, MCMC'92, Computational Mechanics 1992, 73-86.
332. Kobayashi E. The development of practical simulation system to evaluate ship manoeuvrability in shallow water. Proceedings of The Sixth International Symposium on Practical Design of Ships and Mobile Units, PRADS '95 1995.
333. Kose K. On a new mathematical model of manoeuvring motions of a ship and its applications. International Shipbuilding Progress 1982, Vol. 29(No. 336):205-220.
334. Turnock S.R., Molland A.F. The effects of shallow water and channel walls on the low-speed manoeuvring performance of a mariner hull with rudder. International Symposium and Workshop on Forces Acting on a Manoeuvring Vessel, MAN'98 1998.
335. Dand I.W. On ship-bank interaction. Transactions of the Royal Institution of Naval Architects 1982, Vol. 124:25-40.
336. Allan J.F. The stabilisation of ships by active fins. Transactions of the Royal Institution of Naval Architects 1945, Vol. 87:123-159.
337. Conolly J.E. Rolling and its stabilisation by active fins. Transactions of the Royal Institution of Naval Architects 1969, Vol. 111:21-48.
338. Gunsteren F.F.Van Analysis of roll stabiliser performance. International Shipbuilding Progress 1974, Vol. 21(No. 237):125-146.
339. Lloyd A.R.J.M. Roll stabiliser fins: A design procedure. Transactions of the Royal Institution of Naval Architects 1975, Vol. 117:233-254.
340. Lloyd A.R.J.M. Recent developments in roll stabilisation. The Naval Architect March 1977, 44-45. published by, RINA, London.
341. Cox G.G., Lloyd A.R.J.M. Hydrodynamic design basis for navy ship roll motion stabilisation. Transaction of the Society of Naval Architects and Marine Engineers 1977, Vol. 85:51-93.
342. Fairlie-Clarke A.C. Fin stabilisation of ships. The Naval Architect January 1980, 10-11. Published by, RINA, London.
343. Dallinga R.P. Hydromechanic aspects of the design of fin stabilisers. Transactions of the Royal Institution of Naval Architects 1994, Vol. 136:189-200.
344. Lloyd A.R.J.M. Seakeeping: Ship Behaviour in Rough Weather 1998, Published by the, Author, Gosport, UK.
345. Perez T. Ship Motion Control. Course Keeping and Roll Stabilisation using Rudder and Fins 2005, Springer.
346. Cowley W.E., Lambert T.H. The use of the rudder as a roll stabiliser. Third Ship Control Systems Symposium 1972.
347. Carley J.B. Feasibility study of steering and stabilising by rudder. Fourth Ship Control Systems Symposium 1975.
348. Cowley W.E, Lambert T.H. Sea trials on a roll stabiliser using the ship's rudder. Fourth Ship Control Systems Symposium 1975.
349. Lloyd A.R.J.M. Roll stabilisation by rudder. Fourth Ship Control Systems Symposium 1975.
350. Tang A, Wilson P.A. LFE Stabilisation using the rudder. Computational Mechanics Publications 1992, 475-492.
351. Stabilisation at rest: a new solution. The Naval Architect September 2006, 96. Royal Institution of Naval Architects, London.
352. Rawson K.J., Tupper E.C. Basic Ship Theory 2001, Butterworth Heinemann, Oxford. 5th ed.
353. Burcher R., Rydill L. Concepts in Submarine Design. Cambridge Ocean Technology Series 2 1998, Cambridge University Press, Cambridge.
354. Conolly J.E., Goodrich G.J. Sea trials of anti-pitching fins. Transactions of the Royal Institution of Naval Architects 1970, Vol. 112:87-100.
355. Haywood A.J., Benton H.S. The integration of lifting foils into ride control systems for fast ferries. Proceedings of Eighth International Conference on Fast Sea Transportation, FAST '2005 June 2005.
356. Davis M.R., Watson N.L., Holloway D.S. Wave response of an 86 m high speed catamaran with active T-Foils and stern tabs. Transactions of the Royal Institution of Naval Architects 2003, Vol. 145:87-106.
357. Davis M, Holloway D Effect of sea, ride controls, hull form and spacing on motion and seasickness incidence for high speed catamarans. Proceedings of Seventh International Conference on Fast Sea Transportation, FAST '2003 October, 2003.
358. Xi H., Sun J. Effects of actuator dynamics on stabilisation of high-speed planing vessels with controllable transom flaps. Proceedings of Eighth International Conference on Fast Sea Transportation, FAST '2005 June 2005.
359. Katayama T., Suzuki K., Ikeda Y. A new ship motion control system for high speed craft. Proceedings of Seventh International Conference on Fast Sea Transportation, FAST '2003 October, 2003.
360. Folsø R., Nielsen U.D., Torti F. Ride control systems-Reduced motions on the cost of increased sectional forces. Proceedings of Seventh International Conference on Fast Sea Transportation, FAST '2003 October, 2003.
361. Doctors L.J. Theoretical study of the tradeoff between stabiliser drag and hull motion. Transactions of the Royal Institution of Naval Architecture 2004, Vol. 146:289-298.
362. Carlton J.S. Marine Propellers and Propulsion 1994, Butterworth Heinemann, Oxford.
363. Kracht A.M. Rudder in the slipstream of a propeller (in German). VWS Report No. 1178/90 1990.
364. Molland A.F., Turnock S.R., Smithwick J.E.T. Design and performance characteristics of semi-balanced ship skeg rudders. Transactions of the Royal Institution of Naval Architects 2000, Vol. 142.
365. Molland A.F., Turnock S.R. A compact computational method for predicting forces on a rudder in a propeller slipstream. Transactions of the Royal Institution of Naval Architects 1996, Vol. 138:227-244.
366. Harding R. The performance of twisted and cambered rudders. Individual Project Report 2000, Part III, School of Engineering Sciences, Ship Science, University of Southampton.
367. Turnock S.R., Wright A.M. Directly coupled fluid structure model of a ship rudder behind a propeller. Marine Structures 2000, Vol. 13:53-72.
368. Avellino G., Coan A. One or two rudders? A dilemma in fast twin screw vessel design. Proceedings of Seventh International Conference on Fast Sea Transportation, FAST 2003 October, 2003.