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Abstract
Kecelakaan karena tabrak burung sering terjadi pada operasi penerbangan serta pada saat musim migrasinya burung-burung, hal ini dapat menyebabkan kegagalan struktur serta mengancam keselamatan penerbangan. Efek yang terjadi pada komponen struktur pesawat yang terkena tumbukan tabrak burung ini umumnya berupa deformasi penyok (Dent) atau berlubangnya lapisan kulit pesawat serta struktur lainnya. Penelitian ini membahas tabrak burung pada Leading Edge dengan metode SPH (smooth particle hydrodinamics) berbasis metode komputasi numeric elemen hingga (finite element method). Struktur Leading Edge diasumsikan hanya terdiri dari skin dengan memvariasikan 4 kecepatan burung yaitu: 75 m/s, 100 m/s, 125 m/s dan 150 m/s, serta 2 variasi sudut sebesar 0 dan 45. Hasil simulasi menunjukan deformasi Leading Edge meningkat dengan bertambahnya kecepatan, serta gaya impact lebih tinggi pada arah tumbukan 0o untuk tiap kecepatan yang sama. Gaya impact maksimum pada tiap kecepatan untuk arah tumbukan 0o dan 45o pada rentang 6 – 17 kN dan 3 – 12 kN. Sementara hasil displacement maksimum pada tiap kecepatan untuk arah tumbukan 0o dan 45o pada rentang 148 – 336 mm dan 89 – 198 mm.
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References
- Thorpe, J., 1992, “Analysis of Bird Strikes”, CAA-UK
- Heimbs, S., 2011, Bird Strike Analysis in Aircraft Engineering: An Overview. Advances in Mechanical Engineering Research, Vol 3. Nova Science Publishers, Inc.
- Zhu, S, Mingbo Tong, Yuequan Wang, 2009, Experiment and Numerical Simulation of a Full-Scale Aircraft Windshield Subjected to Bird Impact, 50th AIAA/ASME/ASCE/ASC Structures, Structural Dynamics, and Materials Conference, California.
- Kim, H., 2012, Impact Damage Formation on Composite Aircraft Structures. Federal Aviation Administration, JAMS 2012, Technical Review Meeting, Baltimore.
- J.P. Barber, H.R. Taylor, J.S. Wilbeck, 1978, Bird impact force and pressure on rigid and compliant target. Technical Report AFFDL-TR77-60, Air Force light Dynamics Laboratory.
- J.P. Barber, H.R. Taylor, J.S. Wilbeck, 1975, Characterization of bird impacts on a rigid plate: part 1. Technical Report AFFDL-TR-75-5, Air Force Flight Dynamics Laboratory.
- J.S. Wilbeck, 1978, Impact behavior of low strength projectiles. Technical Report AFML-TR-77-134, WrightPatterson Air Force Base.
- J.S. Wilbeck, J.P. Barber, 1978, Impact bird loading, The Shock and Vibration Bulletin 48, 2 115-122.
- Allan, J. R. (2000) The costs of bird strikes and bird strike prevention. In human conflicts with wildlife: Economic considerations (pp. 147- 153). Lincoln, NE: USDA National Wildlife Research Center Symposia.
- Abaqus Analysis User’s Manual, Equation of state, Section 22.21.1, Version 6.10.
- Simulia, “A Strategy for Bird Strike Simulations using Abaqus/Explicit”,Simulia Help
- ASM “Aerospace Specification Metals” http://asm.matweb.com/search/Spec ificMaterial.asp?bassnum=ma2024t4 (diakses pada tanggal 30 November 2018)
- Airoldi, A., and Cacchione. B, 2006, “Modelling of Impact Forces and Pressures in Lagrangian Bird Strike
- Analyses”, International Journal of Impact Engineering, 32, pp. 1651- 1677.
- Zhou, Jie., 2017, “Experimental and numerical investigation of soft impact loading on aircraft materials”. Mechanics of Materials, Division Department of Mechanical Engineering, Imperial College, London.
- Annabi, Nasim, M.S., Jason W. Nichol, Ph.D., Xia Zhong, M.S., Chengdong Ji, M.B.E., Sandeep Koshy, B.A.Sc., Ali Khademhosseini, Ph.D., and Fariba Dehghani, Ph.D., 2011, “Controlling the Porosity and Microarchitecture of Hydrogels for Tissue Engineering.” Tissue Engineering Part B: Reviews 16.4: 371-383. Mary Ann Liebert, Inc.
- CASA Publication, 1988, Structural Repair Manual I C-212 Aircraft Series 100, 200, 300 and 400. Apartado 7151 – 41080 Sevilla.
- UIUC Applied Aerodynamics Group, Department of Aerospace Engineering, UIUC Airfoil Coordinates Database. https://mselig.ae.illinois.edu/ads/coord_database.html (diakses pada tanggal 30 November 2018)
References
Thorpe, J., 1992, “Analysis of Bird Strikes”, CAA-UK
Heimbs, S., 2011, Bird Strike Analysis in Aircraft Engineering: An Overview. Advances in Mechanical Engineering Research, Vol 3. Nova Science Publishers, Inc.
Zhu, S, Mingbo Tong, Yuequan Wang, 2009, Experiment and Numerical Simulation of a Full-Scale Aircraft Windshield Subjected to Bird Impact, 50th AIAA/ASME/ASCE/ASC Structures, Structural Dynamics, and Materials Conference, California.
Kim, H., 2012, Impact Damage Formation on Composite Aircraft Structures. Federal Aviation Administration, JAMS 2012, Technical Review Meeting, Baltimore.
J.P. Barber, H.R. Taylor, J.S. Wilbeck, 1978, Bird impact force and pressure on rigid and compliant target. Technical Report AFFDL-TR77-60, Air Force light Dynamics Laboratory.
J.P. Barber, H.R. Taylor, J.S. Wilbeck, 1975, Characterization of bird impacts on a rigid plate: part 1. Technical Report AFFDL-TR-75-5, Air Force Flight Dynamics Laboratory.
J.S. Wilbeck, 1978, Impact behavior of low strength projectiles. Technical Report AFML-TR-77-134, WrightPatterson Air Force Base.
J.S. Wilbeck, J.P. Barber, 1978, Impact bird loading, The Shock and Vibration Bulletin 48, 2 115-122.
Allan, J. R. (2000) The costs of bird strikes and bird strike prevention. In human conflicts with wildlife: Economic considerations (pp. 147- 153). Lincoln, NE: USDA National Wildlife Research Center Symposia.
Abaqus Analysis User’s Manual, Equation of state, Section 22.21.1, Version 6.10.
Simulia, “A Strategy for Bird Strike Simulations using Abaqus/Explicit”,Simulia Help
ASM “Aerospace Specification Metals” http://asm.matweb.com/search/Spec ificMaterial.asp?bassnum=ma2024t4 (diakses pada tanggal 30 November 2018)
Airoldi, A., and Cacchione. B, 2006, “Modelling of Impact Forces and Pressures in Lagrangian Bird Strike
Analyses”, International Journal of Impact Engineering, 32, pp. 1651- 1677.
Zhou, Jie., 2017, “Experimental and numerical investigation of soft impact loading on aircraft materials”. Mechanics of Materials, Division Department of Mechanical Engineering, Imperial College, London.
Annabi, Nasim, M.S., Jason W. Nichol, Ph.D., Xia Zhong, M.S., Chengdong Ji, M.B.E., Sandeep Koshy, B.A.Sc., Ali Khademhosseini, Ph.D., and Fariba Dehghani, Ph.D., 2011, “Controlling the Porosity and Microarchitecture of Hydrogels for Tissue Engineering.” Tissue Engineering Part B: Reviews 16.4: 371-383. Mary Ann Liebert, Inc.
CASA Publication, 1988, Structural Repair Manual I C-212 Aircraft Series 100, 200, 300 and 400. Apartado 7151 – 41080 Sevilla.
UIUC Applied Aerodynamics Group, Department of Aerospace Engineering, UIUC Airfoil Coordinates Database. https://mselig.ae.illinois.edu/ads/coord_database.html (diakses pada tanggal 30 November 2018)
