Survey of diagnostic tools used in hypervelocity impact studies
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[19] J. Swegle. A suggested technique for determining in‐material longitudinal and shear particle velocity histories in a single‐inclined‐plate impact experiment , 1978 .
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[33] L. M. Barker,et al. Shock‐Wave Studies of PMMA, Fused Silica, and Sapphire , 1970 .
[34] Y. Partom,et al. Lateral stress measurement in shock-loaded targets with transverse piezoresistance gauges , 1985 .
[35] D. Grady. High-Pressure Release-Wave Measurements and Phase Transformation in CaCO3 , 1986 .
[36] Y. Gupta. Shear measurements in shock‐loaded solids , 1976 .
[37] Y. Gupta. Shear and compression wave measurements in shocked polycrystalline Al2O3 , 1983 .
[38] R. Graham,et al. Shock compression of solids , 1979 .
[39] Robert F. Benjamin,et al. Microshell®-Tipped Optical Fibers As Sensors Of High-Pressure Pulses In Adverse Environments , 1984, Optics & Photonics.
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[41] Akira Sawaoka,et al. Dynamic response of fused quartz in the permanent densification region , 1981 .
[42] L. Chhabildas. Shock Loading and Release Behavior of X-Cut Quartz , 1986 .
[43] G. Lyzenga,et al. The temperature of shock‐compressed water , 1982 .
[44] Y. Gupta,et al. Quasistatic experiments to determine material constants for the piezoresistance foils used in shock wave experiments , 1984 .
[45] G. E. Duvall,et al. Phase transitions under shock-wave loading , 1977 .
[46] J. Asay,et al. Shock‐compression and release behavior near melt states in aluminum , 1975 .
[47] W. Holle. SHOCK WAVE DIAGNOSTICS BY TIME-RESOLVED INFRARED RADIOMETRY AND NON-LINEAR RAMAN SPECTROSCOPY**Work performed under the auspices of the U.S. Department of Energy by the Lawrence Livermore National Laboratory under contract No. W-7405-ENG-48. , 1984 .
[48] J. N. Fritz,et al. CHAPTER VII – THE EQUATION OF STATE OF SOLIDS FROM SHOCK WAVE STUDIES , 1970 .
[49] David R. Goosman,et al. Fabry-Perot Velocimetry Techniques: Is Doppler Shift Affected By Surface Normal Direction? , 1984, Optics & Photonics.
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[51] Thomas J. Ahrens,et al. Shock temperatures in CaO , 1984 .
[52] D. E. Grady,et al. Hugoniot sound velocities and phase transformations in two silicates , 1975 .
[53] J. Wise,et al. Laser interferometer measurements of refractive index in shock-compressed materials , 1986 .
[54] K. Kondo,et al. Method for the measurement of temperature in shock compression of solids , 1980 .
[55] Satish C. Gupta,et al. Piezoresistance response of longitudinally and laterally oriented ytterbium foils subjected to impact and quasi‐static loading , 1985 .
[56] M. Durand,et al. Interferometric laser technique for accurate velocity measurement in shock wave physics , 1977 .
[57] F. Bauer,et al. Behavior of ferroelectric ceramics and PVF2 polymers under shock loading , 1982 .
[58] Serge Gidon,et al. Doppler Laser Interferometry With Light Transmission By Two Optical Fibers , 1985, Other Conferences.
[59] The pressure dependence of the yield strength of shock‐loaded Manganin gauges , 1985 .
[60] Lalit C. Chhabildas,et al. Rise‐time measurements of shock transitions in aluminum, copper, and steel , 1979 .
[61] L. M. Erickson,et al. Precision stress measurements in severe shock‐wave environments with low‐impedance manganin gauges , 1980 .
[62] L. V. Al’tshuler,et al. Strength and elasticity of iron and copper at high shock-wave compression pressures , 1971 .
[63] D. Grady,et al. Effects of Stress on the Electrical Resistance of Ytterbium and Calibration of Ytterbium Stress Transducers , 1973 .
[64] J. M. Brown,et al. Melting of iron under core conditions , 1980 .
[65] Herbert J. Sutherland,et al. A velocity interferometer technique to determine shear‐wave particle velocity in shock‐loaded solids , 1979 .
[66] Possibility of measuring shear waves in oblique‐impact experiments with in‐material piezoresistance gauges , 1986 .
[67] D. D. Keough,et al. Experimental facility to produce and measure compression and shear waves in impacted solids , 1980 .
[68] D. D. Keough,et al. Variation of the Shock Piezoresistance Coefficient of Manganin as a Function of Deformation , 1970 .
[69] T. Mashimo,et al. A Measurement System for Interior Projectile Motion and Particle-Velocity Histories for Impact Shock Study with a Two-Stage Light Gas Gun , 1981 .
[70] Longitudinal dynamic stress measurements with in-material piezoresistive gauges , 1985 .
[71] W. F. Hemsing,et al. Velocity sensing interferometer (VISAR) modification. , 1979, The Review of scientific instruments.
[72] D. Grady,et al. Piezoresistive effects in ytterbium stress transducers , 1977 .
[73] Pei Chi Chou,et al. Dynamic Response of Materials to Intense Impulsive Loading , 1972 .
[74] Gregory A. Lyzenga,et al. Shock temperatures of SiO2 and their geophysical implications , 1983 .
[75] D. Erlich,et al. Stress-gage system for the megabar (100 GPa) range. Final report 13 Aug 1974--Mar 1976 , 1976 .
[76] L. M. Barker,et al. Correction to the velocity‐per‐fringe relationship for the VISAR interferometer , 1974 .
[77] J. N. Fritz,et al. Optical technique for determining rarefaction wave velocities at very high pressures , 1982 .
[78] C. Young,et al. An electromagnetic shear-stress gage for large-amplitude shear waves , 1977 .
[79] James R. Asay,et al. The response of materials to dynamic loading , 1987 .
[80] H. H. Chau,et al. Streak camera recording of interferometer fringes , 1977 .
[81] Z. Rosenberg,et al. Determination of stress-time histories in axially symmetric impacts with the two-gauge technique , 1984 .
[82] E. Barsis,et al. Piezoresistivity Coefficients in Manganin , 1970 .
[83] Calibration studies of the carbon piezoresistive gauge , 1975 .
[84] L. M. Barker,et al. Laser interferometer for measuring high velocities of any reflecting surface , 1972 .
[85] R. Graham. Shock-induced electrical activity in polymeric solids. A mechanically induced bond scission model , 1979 .