Mission Configurable Modular Craft Concept Study
AbstractThis work illustrates how modern high speed craft design tools may be effectively used to evaluate innovative concepts for which empirical data may be limited. The example presented here was motivated by the US Navy’s interest in a finding a replacement for, or complement to, the USN Special Operations Forces’ Mark V high speed craft. Given the conflicting demands of restricted size and weight imposed by air transportability and broad mission requirements, a modular, multi-hull configuration is proposed and studied. The boat parameter space that influences calm water performance, sea keeping accelerations, and structural loads is explored. A proposed trimaran concept shows how intelligent placement of outer, or wing hulls can, in principle, mitigate shock loads and lower resistance, but with the cost of increased structural complexity and potentially a heavier craft.
AKERS, R.H., HOECKLEY, S.A., PETERSON, R.S., AND TROESCH, A.W. (1999) Predicted vs. Measured Vertical-Plane Dynamics of a Planing Boat. FAST 1999. Seattle, Washington, USA.
AMERICAN BUREAU OF SHIPPING (2001) Guide for Building and Classing: High Speed Craft. Houston.
ALLEN, R.G. AND JONES, R.R. (1977) Considerations on the Structural Design of High Performance Marine Vehicles. SNAME, New York and Metropolitan Section Meeting, January 13.
BLOUNT, D.L. AND HANKLEY, D.W. (1976) Full Scale Trials and Analysis of High Performance Planing Craft Data. Transactions, SNAME, Vol. 84.
CLARK, V. (2002) SeaPower 21 Series Part I: Projecting decisive joint capabilities. Naval Institute Proceedings, October.
COOPER, S. AND NORTON, M. (2002) New paradigms in boat design: An exploration into unmanned surface vehicles. Association for Unmanned Vehicle Systems International Symposium.
FRIDSMA, G. (1971) A Systematic Study of Rough-Water Performance of Planing Hulls (Irregular Waves - Part II), Stevens Institute of Technology, March.
GALE, P.A. (2003) The Ship Design Process. Chapter 5, Ship Design and Construction. The Society of Naval Architects and Marine Engineers (SNAME), Jersey City, New Jersey, pp. 5-1 to 5-40.
HELLER, S.R. AND JASPER, N.H. (1960) On the Structural Design of Planing Craft. Quarterly Transactions, RINA. July.
HUGHES, O.F. (1988) Ship Structural Design: A Rationally-Based, Computer-Aided, Optimization Approach. SNAME, Jersey City.
SAVANDER, B.R. (1997) Planing Hull Steady Hydrodynamics. Ph.D. Thesis, Department of Naval Architecture and Marine Engineering, The University of Michigan.
SAVANDER, B.R., SCORPIO, S.M., AND TAYLOR, R.K. (2002) Steady Hydrodynamic Analysis of Planing Surfaces. SNAME, Journal of Ship Research, Vol. 46, No. 4.
SAVITSKY, D. AND BROWN, P.W. (1976) Procedures for Hydrodynamic Evaluation of Planing Hulls in Smooth and Rough Water. Marine Technology, SNAME, October 1976.
SOKOL, W. AND HANSEN, E. (2001) Unmanned vehicles: A technology whose time has come. July 2001 Excerpt. www.dt.navy.mil.
SPENCER, J.S. (1975) Sructural Design of Aluminum Crewboats. Marine Technology, SNAME, New York, July.
TULIN, M. P. (1957) The theory of slender planing surfaces at high speed. Schiffstechnik, 4, 1225-133.
VORUS, W.S. (1996) A flat cylinder impact theory for analysis of vessel impact loading and steady planing resistance. Journal of Ship Research, Vol. 40, No. 2, pp. 89-106.
WAGNER, H. (1932) Uber stross-und gleitvorgange an der oberflache von flussigkeiten. ZAMM, 12 pp. 193-215.
ZARNICK, E.E. (1978) A Nonlinear Mathematical Model of Motions of a Planing Boat in Regular Waves. David W. Taylor Naval Ship Research and Development Center. Report Number DTNSRDC-78/032.
ZARNICK, E.E. (1979) A Nonlinear Mathematical Model of Motions of a Planing Boat in Irregular Waves. David W. Taylor Naval Ship Research and Development Center. Report Number DTNSRDC/SPD-0867-01.
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