Abstract
Terminal ballistics is the general name for a large number of processes which take place during the high velocity impact of various projectiles/target combinations. There are two related disciplines which deal with launching these projectiles. Interior Ballistics concerns their acceleration to the desired velocity, and Exterior Ballistics deals with their flight dynamics from the launcher to the target. The present chapter describes, very briefly, some of the equipments and techniques which are used to launch projectiles to the desired velocity, as well as the relevant diagnostics which are used to follow its flight and its impact. The main experimental and theoretical techniques, which were developed in order to determine the relevant properties of the impacting materials, will also be described here.
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References
Al’tshuler LV (1965) Use of shock waves in high-pressure physics. Sov Phys Uspenskhi 8:52–90
Asay JR (1997) The use of shock-structure methods for evaluating high-pressure material properties. Int J Impact Eng 20:27–62
Asay JR, Kerley GI (1987) The response of material to dynamic loading. Int J Impact Eng 5:69–100
Avinadav C, Ashuach Y, Kreif R (2011) Interferometry-based Kolsky bar system. Rev Sci Instr 82:073908
Backman ME (1976) Terminal ballistics. Naval Weapons Center Report NWC-TP-5780. NWC China Lake, CA
Barker LM, Hollenbach RE (1964) Interferometer technique for measuring the dynamic mechanical properties of materials. Rev Sci Instr 36:1617–1620
Barsis E, Williams E, Skoog C (1970) Piezoresistivity coefficients in manganin. J Appl Phys 41:5155–5162
Bauer F (1983) PVF2 polymers: ferroelectric polarization and piezoelectric properties under dynamic pressure and shockwave action. Ferroelectrics 49:213–240
Bauer F (1984) Piezoelectric and electric properties of PVF2 polymers under shock wave action. In: Asay J, Graham RA, Straub GK (eds) Proceedings of the APS conference on shock waves in condensed matter, 1983. Elsevier Science Publ., pp 225–228
Bernstein D, Godfrey C, Klein A, Shimmin W (1967) Research on manganin pressure transducers. In: Proceedings of the HDP symposium on the behavior of dense media under high dynamic pressures, Paris, Sept 1967, pp 461–467
Chhabildas LC (1987) Survey of diagnostic tools used in hypervelocity impacts. Int J Impact Eng 5:201–220
Fuller PJA, Price JH (1964) Dynamic pressure measurements to 300 kb with manganin transducers. Br J Appl Phys 15:751–758
Gorham DA, Pope PH, Cox O (1984) Sources of error in very high strain rate compression tests. Inst Phys Conf Ser 70:151–158
Hohler V, Stilp AJ (1990) Long-rod penetration mechanics. In: Zukas JA (ed) High velocity impact mechanics, Wiley, pp 321–404
Johnson PM, Burgess TJ (1968) Rev Sci Instr 39:1100–1103
Kanel GI, Vakhitova GG, Dremin AN (1978) Metrological characteristics of manganin pressure pickups under conditions of shock compression and unloading. Combust Explos Shock Waves 14:244–248
Kolsky H (1949) An investigation of the mechanical properties of materials at very high rates of loading. Proc Roy Soc London B62:676–700
Li QM, Meng H (2003) About the dynamic strength enhancement of concrete and concrete-like materials in a split Hopkinson pressure bar. Int J Solids Struct 40:343–360
McQueen RG, Marsh SP, Taylor JW, Fritz JN, Carter WJ (1970) The equation of state of solids from shock wave studies. In: Kinslow R (ed) High velocity impact phenomena. Academic Press, New York
Rosenberg Z, Partom Y (1985) Lateral stress measurement in shock-loaded targets with transverse piezoresistance gauges. J Appl Phys 58:3072–3076
Rosenberg Z, Yaziv D, Partom Y (1980) Calibration of foil-like manganin gauges in planar shock wave experiments. J Appl Phys 51:3702–3705
Rosenberg Z, Partom Y, Yaziv D (1981) The response of manganin gauges shock loaded in the 2-D straining mode. J Appl Phys 52:755–758
Rosenberg Z, Dawicke D, Strader E, Bless SJ (1986) A new technique for heating specimens in split Hopkinson bar experiments using induction coil heaters. Exp Mech 26:275–278
Siegel AE (1955) The theory of high speed guns, AGARDograph 91. Advisory Group for Aerospace Research and Development, London
Stilp AJ, Hohler V (1990) Experimental methods for terminal ballistics and impact physics. In: Zukas JA (ed) High velocity impact dynamics. Wiley, New York, pp 515–592
Strand OT, Goosman DR, Martinez C, Whitworth TL, Kuhlow WW (2006) Compact system for high-speed velocimetry using heterodyne techniques. Rev Sci Instr 77:083108
Swift HF (1982) Image forming instruments. In: Zukas JA, Nicholas T, Swift HF, Greszczuk LB, Curran DR (eds) Impact dynamics. Wiley, New York, pp 241–275
Vantine HC, Erickson LM, Janzen JA (1980) Hysteresis-corrected calibration of manganin under shock loading. J Appl Phys 51:1957–1962
Liden E, Helte A, Tjernberg A (2008) Multiple cross-wise orientated Nera panels against shaped charge warheads. Proceedings of the 24th international symposium ballistics, New Orleans, Louisiana, 2008, pp 1373–1380
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Rosenberg, Z., Dekel, E. (2012). Experimental Techniques. In: Terminal Ballistics. Springer, Berlin, Heidelberg. https://doi.org/10.1007/978-3-642-25305-8_1
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DOI: https://doi.org/10.1007/978-3-642-25305-8_1
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