Hơn bốn mươi năm nghiên cứu liên tục tại UTIAS về dòng chảy không ổn định và sóng sốc

Amr YM, Hall JG (1981) Stability limits and transition times of wave induced wall boundary layers. In: 13th Int Symp on Shock Tubes and Waves, Niagara Falls, New York, July 6–9 Anderson JHB, Osborne PJK, Glass II (1967) Gladstone-Dale constant for the oxygen atom and molecule, Phys Fluids 10:1848 Ando S, Glass II (1981) Domains and boundaries of pseudostationary oblique-shock-wave reflection in carbon dioxide. 7th Int Symp on Military Appl Blast; Medicine Hat, Alberta, July 13–17, Also UTIAS TN 231 Belozerov A (1968) Study of the initial ionization process in a strong shock wave. UTIAS Rept 131 Ben-Dor G, Glass II (1978) Nonstationary oblique shock-wave reflections; Actual isopycnics and numerical experiments. AIAA J 11:1146–1153 Ben-Dor G, Glass II (1979) Domains and boundaries of non- stationary oblique shock-wave reflexion; 1. diatomic gas. J Fluid Mech 92–3:459–496 Ben-Dor G, Whitten BT (1979) Interferometric technique and data evaluation methods for the UTIAS 10cm×18cm hypervelocity shock tube. UTIAS TN 208 Ben-Dor G, Glass II (1980) Domains and boundary of non-stationary oblique shock-wave reflexion; 2. monatomic gas. J Fluid Mech 96-4:735–756 Benoit A (1963) An experimental investigation of spherical combustion for the UTIA implosion-driven launcher. UTIA TN 71 Benoit A (1964) Thermodynamic and composition data for constant volume combustion of stoichiometric mixture of hydrogen-oxygen diluted with helium or hydrogen. UTIAS TN 85 Benoit A (1966) Properties of Chapman-Jouguet detonations in stoichiometric hydrogen-oxygen mixtures diluted with helium and hydrogen. UTIAS TN 102 Benoit A (1967) Properties of Chapman-Jouguet detonations in stoichiometric hydrogen-oxygen mixtures diluted with helium and hydrogen. UTIAS TN 104 Benoit A (1968) Equilibrium thermodynamics data for the H2-O2-He systems. UTIAS TN 128 Benoit A, Glass II (1968) An experimental study of spherical combustion waves in a hemispherical chamber. Comb and Flame 12–2:521–533 Billington IJ (1955) An experimental study of one-dimensional refraction of a rarefaction wave at a contact surface. UTIAS Rept 32 Billington IJ, Glass II (1955) On the one-dimensional reflection of a rarefaction wave at a contact surface. UTIAS Rept 31 Bitondo D (1950) Design and construction of a shock tube. UTIA Rept 3 Bitondo D, Glass II, Patterson GN (1950) One dimensional theory of absorption and amplification of a plane shock wave by a gaseous layer. UTIA Rept 5 Bitondo D, Lobb RK (1950) Experiments on the amplification of a plane shock wave. UTIA Rept 7 Booden MN, Needham CE (1981) Two dimensional Hull code simulation of complex and double Mach reflections. Air Force Weapons Laboratory TN NTE-TN-81-001, Also Glaz HM (1981) NSWC; Private communication Book LD, Boris JP, Kuhl AL, Oran ES, Picone JM, Zalesak ST (1980) Simulation of complex shock reflections from wedges in inert and reactive gaseous mixtures. NRL Memo Rept 4333 Boyer DW (1956) Effects of kinematic viscosity and wave speed on shock wave attenuation. UTIA TN 8 Boyer DW, Brode H, Glass II. Hall JG (1958) Blast from a pressurized. Sphere. UTIA Rept 48 Boyer DW (1959) Spherical explosions and implosions. UTIA Rept 58 Boyer AG (1964) Design, instrumentation and performance of the UTIAS 4 in. × 7 in. hypersonic shock tube. UTIAS Rept 99 Sphere. UTIA Rept 48 Bremner GF, Dukowicz JK, Glass II (1961) On the one-dimensional overtaking of a rarefaction wave by a shock wave. UTIA TN 33, Also ARS J:1455–1456 Bressers AJN (1983) Pressures inside coupled rooms subjected to sonic boom. UTIAS TN 241 Brimlow PI (1974) An interferometric investigation of shock structure and its induced shock tube boundary layer in ionized argon. UTIAS TN 187: Also AFOSR-TR-74-1752 Bristow MPF, Glass II (1972) Polarizability of singly ionized argon. Phys Fluids 15-11:2066–2067 Buchanan WL (1980) An experimental study of time-dependent instabilities of planar shock waves in ionizing argon. UTIAS TN 222 Bull GV (1951) Starting process in an intermittent wind tunnel. UTIA Rept 12 Bull GV, Fowell LR, Henshaw DH (1953) The interaction of two similarly facing shock waves. UTIA Rept 25 Carothers R (1972) Initial calibration and physiological response data for the travelling-wave sonic-boom simulator. UTIAS TN 180 Chan SK, Capelli G, Graf WO (1971) Performance trial of the eight-inch diameter UTIAS implosion driven hypervelocity launchers MK2 and MK3. UTIAS TN 161 Chan SK, Glass II (1971) Radiative relaxation behind high-speed shock waves in air. Phys Fluids 17–4:688–690 Chan SK (1973) Analytical and experimental study of implosion-driven shock tube. UTIAS Rept 191 Chan YY, Mason RP, Reddy NM (1965) Instrumentation and calibration of UTIAS hypersonic shock tunnel. UTIAS Rept 91 Collins R (1960) Some methods of generating cylindrical explosions. UTIA TN 43 Compton DL, Cooper DM (1973) Duplication in a shock tube of stagnation region conditions on a Jovian atmosphere-entry probe. In: Bershader D, Griffith WC (eds) Proc 9th Int Shock Tube Symposium Stanford University Press, Stanford, pp 218–329 Cook WJ, Presley LL, Chapman GT (1979) Shock tubes as a device for testing transonic airfoils at high Reynolds numbers. AIAA J 7:741–721 Czerwinski W (1970) Structural design and development of UTIAS implosion driven launchers. UTIAS Rept 153 Czerwinski W, Deschambault RL, Lock GD (1987) Design of a dusty-gas shock-tube facility with preliminary experimental results. UTIAS TN 263 Dannenberg RE (1977) Capabilities of arc-driven shock tubes. In: Ahlborn B, Herzberg A, Russel D (eds) Proc 11th Int Symp on Shock Tubes and Waves, University of Wasington Press, Seattle, pp 416–431 DeLeeuw JH (1958) The interaction of a plane strong shock wave with a steady magnetic field. UTIA Rept 49 Deschambault RL, Glass II (1983) An update on non-stationary oblique-shock-wave reflections:actualisopycnics and numerical experiments. J Fluid Mech 131:27–57 Deschambault RL (1984) Nonstationary oblique-shock-wavereflections in air. UTIAS Rept 270 Drewry JE (1967) An experimental investigation of nonequilibrium corner expansion flows of dissociated oxygen. UTIAS Rept 124 Dukowicz JK (1964) A magnetohydrodynamic flow in the shock tube boundary layer with transverse magnetic field. UTIAS Rept 99 Du XX, Liu WS, Glass II (1983) Nonstationary laminar boundary layer induced behind blast waves and detonation waves. In: Archer, RD, Milton, BE (eds) Proc 14th Int Symp on Shock Tubes and Shock Waves, University of Sydney, New South Wales, Australia Elsenaar A (1969a) A numerical model for a combustion-driven spherical implosion wave. UTIAS TN 144 Elsenaar A (1969b) Microwave measurements of projectile motion in the barrel of the UTIAS implosion driven hypervelocity launcher. UTIAS TN 145 Evans RL, Glass II (1970) Calibration of a condenser microphone micro-meteoroid sensor. CASI J 16–9:375–379 Flagg RF (1968) The application of implosion wave dynamics to a hypervelocity launcher. UTIAS Rept 125: Also explosive-driven spherical implosion waves. Phys Fluids 11-10:2282–2284 Flagg RF, Mitchell GP (1968) An optimization study of the UTIAS implosion-driven hypervelocity launcher MK2. UTIAS TN 130 Ford CA, Glass II (1954) An experimental study of shock wave refraction. UTIA Rept 29 Ford CA, Glass II (1956) An experimental study of one-dimensional shock wave refraction. J Aero Sci 23-2:189–191 Frank WJ (1957) Interactions of a shock wave with a wire screen. UTIA TN 2 Friend WH (1958) The interaction of a plane shock wave with an inclined perforated plate. UTIA TN 25 Garg SK (1969) Spherical elastic-plastic waves in solid media. UTIAS TN 32 Glass II (1950) Design of a wave interaction tube. UTIA Rept 6 Glass II, Patterson GN (1951) A theoretical and experimental study of shock-tube flows. J Aero Sci 22-2:73–100 Glass II (1951a) An experimental determination of the speed of sound in gases from the head of a rarefaction wave. UTIA Rept 9 Glass II (1951b) On the speed of sound in gases. J Aero Sci 1–9-4:286 Glass II (1951c) Aerodynamics of blasts. UTIA Review 17: Also CASI J 7-3:109–135 Glass II, Martin WA, Patterson GN (1953) A theoretical and experimental study of the shock tube. UTIA Rept 2 Glass II, Hall JG (1957) Determination of the speed of sound in sulfurhexafluoride in a shock tube. J Chem Phys 27–5:1223 Glass II, Hall JG (1959) Shock sphere— An apparatus for generating spherical flows. J Appl Phys 28–4:424–425 Glass II, Heuckroth LE (1963) The hydrodynamic shock tube. Phys Fluids 6-4:543–547 Glass II, Hall JG (1959) Handbook of supersonic aerodynamics; Section 18; Shock Tubes. Navord Rept 1488:6 U.S.Government Printing Office, Wasington;D.C. Glass II, Heuckroth LE (1959) An experimental investigation of the head-on collision of spherical shock waves. UTIA Rept 59, 1960: Also Phys Fluids (1959) 2:542–546 Glass II, Heuckroth LE, Molder S (1961) On the one-dimensional overtaking of a shock wave by a rarefaction wave. UTIA TN 30: Also ARS J (1961):1453–1454. Glass II, Kawada H (1962) Prandtl-Meyer flows of dissociated and ionized gases. UTIA Rept 85 Glass II, Takano A (1963a) Nonequilibrium expansion flow of dissociated oxygen around a corner. UTIA Rept 91 Glass II, Takano A (1963b) Nonequilibrium expansion flow of ionized argon around a corner. UTIAS Rept 95 Glass II, Takano A (1965) Nonequilibrium flows of dissociated oxygen and ionized argon around a corner. Proc Aero Sci 6:163–249 Glass II, Ribner HS, Gottlieb JJ (1972) Canadian sonic-boom facilities. CASI J 18–10:235–246 Glass II (1972) Appraisal of UTIAS implosion-driven hypervelocity launchers and shock tubes. Prog Aero Sci 13:223–291 Glass II, Brode HL, Chan SK (1974) Strong planar shock waves generated by explosively-driven spherical implosions. AIAA J 3:367–374 Glass II, Sharma SP (1976) Production of diamonds from graphite using explosive-driven implosions. AIAA J 3:402–404 Glass II, Lips KW, Nowakiwski OV, Reid LD (1976) Sonic-boom startle effects during simulated and actual driving tests. CASI J 22–2:70–88 Glass II, Kalra SP, Sislian JP (1977) Condensation of water vapour in rarefaction waves: 3 experimental results. AIAA J 15:683–693 Glass II, Liu WS, Tang FC (1977) Effects of hydrogen impurities on shock structure and stability in ionizing monatomic gases, Part2;Krypton. Can J Phys 5514:1269–1279 Glass II, Liu WS (1978) Effects of hydrogen impurities on shock structure and stability in ionizing monatomic gases; part 1; Argon. J Fluid Mech 84:55–77 Glass II, Liu WS, Tang FC (1980) Radiation-induced shock tube flow nonuniformities in ionizing argon. Phys Fluids 23-1:224–225 Glass II (1986) Some aspects of shock wave research. AIAA Dryden Lecture in Research delivered at the 24th AIAA Aerospace Sciences Meeting, Reno,Nevada,Jan.7,1986: Also UTIAS Review 48 Glaz HM, Collela P, Glass II, Deschambault RL (1986) A numerical study of oblique shock-wave reflections with experimental comparisons. Proc R Soc Lond A398–205:117–140: Also Glaz HM, Glass II, Li JC, Walter PA (1986) Interaction of oblique shock-wave reflections in air and CO2 with downstreams obstacles. In: Bershader, Hanson RK (Eds) Shock Tubes and Waves, Stanford University Press, Stanford, California Gorjup M, Glass II (1967) Laboratory calibration of a micrometeoroid impact gauge. CASI J 13:197–204 Gottlieb JJ, Glass II (1973) Recent development in sonic-boom simulation using shock tubes. Can J Phys 52:207–218 Gottlieb J J (1974) Sonic boom research at UTIAS. CASI J 20:199–222 Gottlieb JJ (1976) Simulation of a travailing sonic boom in a pyramidal horn. Proc Aero Sci 17 Pergammon Press, New York pp 1–66 Gould DG (1952) The head on collision of two shock waves and a shock and rarefaction wave in one-dimensional flow. UTIA Rept 17 Hall JG (1954a) The design and performance of a 9 inch plate Mach-Zehnder interferometer. UTIA Rept 27 Hall JG (1954b) The transition through a contact region. UTIA Rept 26 Hall JG (1975) Studies of transient gas boundary layer flows generated by unsteady waves. In: Kinney RB (eds) Proc on unsteady aerodynamics, University of Arizona Heuckroth LE, Glass II (1964) Low-energy spherical underwater explosions. Phys Fluids 11:2095–2107: Also UTIA Rept 96 Heimann RB, Kleiman J, Salansky NM (1984) Ultrafast chemical reactions triggered by a shock wave. J Crystal Growth 67:213–216 Heimann RB, Kleiman J, Salansky NM (1984) Structual aspects and conformation of linear carbon polytypes carbynes. Carbon 233:147–155 Heimann RB, Kleiman J (1988) Shock-induced growth of superhard materials in crystal growth; properties and applications 11, Springer-Verlag, Berlin, Heidelberg Holst-Jensen O (1981) An experimental investigation of rise times of very weak shock waves. UTIAS TN 229 Honma H, Glass II, Tsumita Y, Hoist-Jensen O (1981) Weak spherical shock-wave transitions of a N-waves in air with vibrational excitation. In: Treanor CE, Hall LG (eds) Proc 13th Int Symp on Shock Tubes and Waves, Niagara Falls, New York, July 6–9 Honma H, Glass II (1984) Weak spherical shock-wave transition of N-waves in air with vibrational excitation. Proc Roy Soc Lond A391 19–84:55–83; see also UTIAS Rept 253 Honma H, Xu DQ, Glass II (1989) Nonlinear effects on weak spherical N-waves in air with vibrational excitation. In: Collection of Technical Papers,ISCFD Nagoya 1989; Nagoya Trade and Industrial Center, Nagoya Japan, Aug. 28–31 Honma H, Glass II, Wong CH, Holsto-Jensen O, Xu DQ (1991) Experimental and numerical studies of weak blast waves in air. Shock waves, Springer,to be published. Houwing ASP, Sandeman RJ, Flowles RG (1983) Spontaneous acoustic emission and arbitrary disturbance in real gases. In: Archer RD, Milton BE (eds) Proc. 14th International Symposium on Shock Tubes and Waves, Sydney, Australia Hu TCJ, Shirouzu M (1985) Tabular and graphical solutions of regular and Mach reflections in pseudo-stationary frozen and vibrational-equilibriumflows. UTIAS Rept 283 Hu TCJ, Glass II (1986) An interferometric and numerical study of pseudo-stationary oblique-shock-wave reflections in sulfur hexafluoride SF6. In: Bershader D, Hanson RK (eds) Recent Developements in Shock Weaves and Shock Tubes. Stanford University Press, Stanford, California Igra O, Glass II (1973) Corner expansion flow of ionized argon. In: Lighthill MJ et al. (eds) Dynamics of Ionized Gases. Tokyo University Press, pp 449–460 Igra O (1980) Radiation effects in a nonequilibrium cornerexpansion flow of ionizing argon. Phys Fluids 23–8:1513–1517 Johannesen NH, Hodgson JP (1979) The physics of weak waves in gases. Prog Phys 42:629–676 Kalra SP, Measures RM (1973) Approach to ionization equilibrium and atomic cross-section measurements in a helium shock wave. Can J Phys 51-18:1956–1965 Kennedy JE, Glass II (1966) Multipoint initiated implosions from hemispherical shells of sheet explosive. UTIAS TN 99 Kaca J (1988) An interferometric investigation of the diffraction of a planar shock wave over a semicircular cylinder. UTIAS TN 269 Kleiman J (1983) Application of explosive driven implosions to production of diamonds and new materials. UTIAS Ph. D. Thesis Kleiman J, Salansky NM, Glass II (1985) Chromite formation by shock-wave compression. J Appl Phys 585:1819–1827 Kleiman J, Chan PWC, Salansky NM, Glass II (1986) Chemical reactions and diffusion rates in solids produced by shock compression. J Appl Phys 596:1956–1961 Kondo Y, Law CK (1970) Normal shock wave properties in dissociated chlorine. UTIAS TN 149 Kotake S, Glass II (1377) Condensation of water vapour in rarefaction waves; 2 heterogeneous nucleation. AIAA J 15:215–221 Koziak WW (1971) Quantitative laser schlieren measurements in an expanding hypersonic laminar boundary-layer.UTIAS Rept 173 Law CK, Bristow M (1969) Tables of normal shock wave properties for oxygen and nitrogen in dissociation equilibrium. UTIAS TN 148 Law CK (1970) Diffraction of strong shock waves by a sharp compressive corner. UTIAS TN 150 Law CK, Glass II (1971) Diffraction of strong shock waves by a sharp compressive corner. CAS Trans 4:2–12 Lee J-H, Glass II (1982) Domains and boundaries of pseudo-stationary oblique shock-wave reflection in air. UTIAS Rept 262 Leigh BR, Tennyson RC, Glass II (1975) Aged plaster panels subjected to sonic booms. CASI J 21-9-175:352–360 Li JC, Glass II (1985) Collision of Mach reflections with a 90-degree ramp in air and CO2. UTIAS Rept 290 Liu WS, Whitten BT, Glass II (1978) Ionizing argon boundarylayers; Part 1. quasi-steady flat plate laminar boundary layer flows. J Fluid Mech 87:609–640 Liu WS, Glass II (1979) Ionizing argon boundary layers; Part 2. shock tube side-Wall boundary-layer flows. J Fluid Mech 92:459–496 Liu WS (1979) Finite difference solution for nonequilibrium laminar boundary layers in ionizing argon flows. UTIAS Hept 226 Liu WS, Takayama K, Glass II (1980) Coupled interactions of shock-wave structure with laminar boundary layers in ionizing argon flows. J Fluid Mech 96:735–756 Lobb RK (1950a) On the length of a shock tube. UTIA Rept 4 Lobb RK (1950b) A study of supersonic flows in a shock tube. UTIA Rept 8 MacPherson AK (1970) A preliminary Monte-Carlo analysis of the reflection of an imploding hemispherical shock wave similar to that generated in the UTIAS implosion driven hypervelocity launcher or shock tube. UTIAS Rept 152 Makomaski All (1965) Preliminary one-dimensional investigation of the initiation of low-density PETN by hydrogen-oxygendetonation waves. UTIAS TN 85 Martin WA (1957) An experimental study of the boundary layer behind a moving plane shock waves. UTIAS Rept 47 Menard WA (1971) A higher performance electric-arc-driven shock tube. AIAA J 9:2096–2098 Mirels H (1956) Attenuation in a shock tube due to unsteady boundary layer action. NACA TN 3278 Mirels H, Braun WH (1957) Nonuniformities in shock-tube flow due to unsteady boundary layer action. NACA TN 4021 Miura H, Glass II (1981) A dusty-gas shock tube. In: 7th Int. Symp. on Military Appl. Blast, Medicine Hat, Alberta, July 13–17 Miura H, Glass II (1982) On a dusty-gas shock tube. Proc R Soc Lond A382:373–388 Miura H, Glass II (1983) On the passage of a shock wave through a dusty-gas layer. Proc R Soc Lond A384:85–105 Miura H, Glass II (1984) Normal reflection of a shock wave at a rigid wall in a dusty gas. UTIAS Rept 274 Miura H, Glass II (1985) Development of the flow induced by a piston moving impulsively in a dusty gas. Proc R Soc Lond A397:295–309 Miura H, Glass II (1986a) Shock wave reflection from a rigid wall in a dusty gas. Proc R Soc Lond A404:55–67 Miura H, Glass II (1986b) Oblique shock waves in a dusty gas flow over a wedge. Proc R Soc Lond A408:61–78 Miura H, Glass II (1988) Supersonic expansion of a dusty gas around a sharp corner. Proc R Soc Lond A415:91–105 Nicholl CIH (1951) The head-on-collision of shock and rarefaction waves. UTIA Rept 10 Niedzwiecki A, Ribner HS (1978) Subjective loudness of N-wave sonic booms. J Acoust Soc Amer 64:1617–1621 Nowakiwsky OV (1974) Effects of sonic boom on automobile-driver behavior. UTIAS TN 188 Parks EK (1952) Supersonic flow in a shock tube of divergent cross-section. UTIA Rept 18 Patterson GN (1948) Theory of the shock Tube. NOL Memo 9903, White Oak, Maryland Patterson GN (1956) Molecular flow of gases. John Wiley & Sons Patterson GN (1971) Introduction to the molecular theory of gas Flows, UTIAS Patterson GN (1977) Pathway to excellence. UTIAS Poinssot JC (1969) A preliminary investigation of a UTIAS implosion-driven shock tube. UTIAS TN 136 Reddy NM (1966) The use of self-calibrating catalytic probes to measure free-stream atom concentration in a hypersonic flow. UTIAS Rept 121 Reinis S (1976) Acute changes in inner ears of laboratory animals caused by simulated sonic booms. UTIAS Rept 211 Reinis S, Featherstone JW, Weiss DS (1980) The effects of sonic booms on hearing and inner ear structure. In: Int. Symp. on Effects of Impulse Noise on Hearing, Malmo, Sweden, Aug. 25–27 Roberts DE, Glass II (1969) A spectroscopic investigation of combustion-driven spherical implosion waves. Phys Fluids 14:1662–1670: Also UTIAS TN 140 Roig RA, Glass II (1977) A spectroscopic study of combustion driven implosions. Phys Fluids 20:1651–1656 Sagie D, Glass II (1982) Explosive-driven hemispherical implosions for generating fusion plasmas. UTIAS TN 233 Saito T, Glass II (1979) Applications of random-choice method to problems in shock and detonation-wave dynamics. UTIAS Rept 240 Saito T, Kudian AK, Glass II (1981) Temperature measurements of an implosion focus. In: Treanor CE, Hall LG (eds) 13th Int. Symp. on Shock Tubes and Waves, Niagara Falls, New York Sevrey P (1968) Performance analysis of UTIAS implosion-driven hypervelocity launcher. UTIAS TN 121 Shirouzu M, Glass II (1982) An assessment of recent results on pseudo-stationaryoblique-shock-wavereflections. UTIAS Rept 264 Sin WCD, Salansky NM, Glass II (1989) Effects of shock waves on metal semiconductor interfaces. J Appl Phys 6:2289–2292 Sislian JP, Glass II (1976) Condensation of water vapor in rarefaction waves; 1 homogeneous nucleation. AIAA J 4:1731–1737 Sislian JP (1978a) Analysis of turbulent free jet hydrogen-air diffusion flames with finite chemical reaction rate. UTIAS Rept 224; Also NASA contractor Rept 3024 Sislian JP (1978b) Equation of motion and two equation turbulence model for plane or axisymmetric turbulent flows in bodyoriented orthogonal curvilinear coordinates and mass-averaged dependent variables. UTIAS Rept 225; Also NASA contractor Rept 3025 Sislian JP, Evans JS, Glass II (1979) Analysis of turbulent freejet hydrogen-air diffusion flames with finite chemical reaction rates. CASI J 25:61–75 Sislian JP (1981) Analysis of swirling jet turbulence mixing and combustion. UTIAS Rept 249 Steketee JA (1952) On the interaction of rarefaction waves in a shock tube. UTIA Rept 4 Tang FC (1977) Effects of impurities on shock wave stability and structures in ionizing monatomic gases. UTIAS TN 212 Tong KO, Knight CJ, Srivastava BK (1980) Interaction of weak shock waves with screens and honeycombs. AIAA J 18:1298–1305 Trimpi RK, Cohen NB (1957) An integral solution to the flat plate laminar boundary layer flow existing inside and after expansion waves and after shock waves moving into quiescent fluid with particular application to the complete shock tube flow. NACA TN 3944 Tirumalesa D (1967) Oxygen corner-expansion flows with coupled vibrational and dissociational nonequilibrium. UTIAS Rept 123 Tubb PE (1975) Measured effects of turbulence on the rise time of a weak shock. UTIAS MASc Thesis Urbanowicz JT (1988) Pseudo-stationary oblique-shock-wave reflections in low gamma gases-isobutane and sulphurhexafluoride. UTIAS TN 267 Vasudevan B (1977) Pressure measurements at the focus of combustion-driven implosions. UTIAS TN 209 Wahba NN, Glass II, Tennyson RC (1981) Response of a room subjected to simulated sonic booms. In: Treanor CE, Hall LG (eds) 13th Int.Symp. on Shock Tubes and Waves, Niagara Falls, New York Wahba NN (1977) Pressure inside a room subjected to sonic boom. UTIAS TN 207 Wahba NN (1984) Response of a plaster-wood room subjected to simulated sonic booms. UTIAS Rept 276 Waldron HF (1954) An experimental study of a spiral vortex formed by shock wave diffraction. UTIA TN 2 Waldron HF (1958) An experimental investigation of the flow properties behind strong shock waves in nitrogen. UTIA Rept 50 Wang BY, Glass II (1986a) Asymptotic solutions to compressible laminar boundary-layer equation for dusty-gas flow over a semi-infinite flat plate. UTIAS Rept 310 Wang BY, Glass II (1986b) Finite difference solutions for compressible laminar boundary-layer flows of a dusty gas over a semi-infinite flat plate. UTIAS Rept 311 Wang BY, Glass II (1986c) Laminar sidewall boundary layer in a dusty-gas shock tube. UTIAS Rept 312 Watson JD (1967) Implosion-driven hypervelocity launcher performance using gaseous detonation waves. UTIAS TN 113 Wettlauffer DE, Glass II (1972) Specific refractivities of atomic nitrogen and oxygen. Phys Fluids 13:2065–2066 Weynants RR (1968) An experimental investigation of shock-wave diffraction over compression and expansion corners. UTIAS TN 126 Wheeler J (1986) An interferometric investigation of the regular to Mach reflection transition boundary in pseudostationary flow in air. UTIAS TN 256 Zeitoun D, Imbert M (1980) Interaction between the unsteady boundary layer and inviscid hot flow in a shock tube. AIAA J 18:1298–1305 Zhang DL, Glass II (1988) An interferometric investigation of the diffraction of planar shock waves over a half-diamond cylinder in air. UTIAS Rept 322