Physics of strength and fracture control: Adaptation of engineering materials and structures

Physics of Strength and Fracture Control: Adaptation of Engineering Materials and Structures

Volumn , Issue , 2002, Pages 1-640

  Komarovsky, Anatoly A ^a   Astakhov, Viktor P ^b,c,d,e  

^a Scientific and Engineering   (Ukraine)

^b Hypertool Co   (United States)

^c FORD MOTOR COMPANY   (United States)

^d Gina Cody School of Engineering and Computer Science   (Canada)

^e UNIVERSITY OF MANITOBA   (Canada)

Author keywords

[No Author keywords available]

Indexed keywords

EID: 85056493181     PISSN: None     EISSN: None     Source Type: Book    
DOI: None     Document Type: Book

References (345)

1. Paton, B.E., New trends in improvement of strength and residual life of welded structures (in Russian), Avtomaticheskaya Svarka (Automatic Wilding), 9–10, 3, 2000.
2. Felbeck, D.K. and Atkins, A.G., Strength and Fracture of Engineering Solids, 2nd ed., Prentice-Hall, Englewood Cliffs, NJ, 1996.
3. Troshenko, B.T., ed., Resistance of Engineering Materials to Deformation and Fracture (Handbook) (in Russian), Nauk, Dumka, Kyiv, 1993, V.1–2.
4. Hertzberg, R.W., Deformation and Fracture Mechanics of Engineering Materials, 4th ed., John Wiley & Sons, New York, 1996.
5. IIth international conference on the strength of materials (ICSMA-II), Fundamental aspects of the strength of crystalline materials, Prague, Czech Republic, August, 1997.
6. Pollock, D.D., Physical Properties of Materials for Engineers, 2nd ed., CRC Press, Boca Raton, FL, 1993.
7. Smith, C.O., The Science of Engineering Materials, 3rd ed., Prentice-Hall, Englewood Cliffs, NJ, 1986.
8. Klyuev, V.V., Nondestructive testing and diagnostics of safety (in Russian), Zavodskaya Laboratoriy: Diagnostics of Materials, 1, 16, 1998.
9. Sorin, Ya.M., Physical Nature of Reliability (in Russian), Standartizdat, Moscow, 1969.
10. Regel, V.R., Slutsker, A.M., and Tomashevsky, E.I., Kinetic Nature of Strength of Solids (in Russian), Nauka, Moscow, 1974.
11. Hudson, J.B., Thermodynamics of Materials: a Classical and Statistical Synthesis, John Wiley & Sons, New York, 1996.
12. Komarovsky, A.A., Control of the Stress–Strain State of Materials and Structures (in Russian), Vysshaya Shkola, Kyiv, 1966.
13. Nishida, S.-I., Failure Analysis in Engineering Application, Butterworth-Heinemann, Oxford, 1992.
14. Komarovsky, A.A., Chornobyl: cover. How much it serve? (in Russian), Kyiv, Vistnyk Chornobylya, 3–4, 1998.
15. Galyas, A.A. and Poluyanovsky, S.A. Principles of Thermomechanical Fracture of Rocks (in Russian), Naukova Dumka, Kiev, 1972.
16. Komarovsky, A.A. and Astakhov, V.P., Implementation of the latest breakthrough in the physics of materials in metal cutting: analysis and preliminary results, Manuf. Sci. Eng., 10, 319, 1999.
17. Komarovsky, A.A., Wrack and catastrophes are not fatal inevitability (in Russian), Kyiv, Weekly Mirror, July, 1997.
18. Komarovsky, A.A., State-of-Art and Prospects of Development of Strength Science (Scientific forecasts) (in Russian), Naukovedeniye, Kyiv, 2001, 7–12.
19. Levich, V.G., Course of Theoretical Physics (in Russian), Phyzmatgiz, Moskow, 1962.
20. Komarovsky, A.A., Physics of strength, reliability and durability (in Russian), Tyazholoye Mashinostroyeniye (Truck Manufacturing), 9, 24, 2000.
21. Libovits, G., ed., Fracture (Modern Concepts) (in Russian), Mir, Moscow, 1976, V.1–6.
22. Landau, L.D. and Lifshits, L.M., Statistical Physics (in Russian), Nauka, Moscow, 1964.
23. Komarovsky, A.A., Physics of deformation and fracture (in Russian), Prikladnaya Phyzika (Applied Physics), 1, .88, 2001.
24. Landau, L.D. and Lifshits, E.M., Course of Theoretical Physics (Mechanics. Electrodynamics) (in Russian), Nauka, Moscow, 1969.
25. Bogoroditsky, N.P. et al., Theory of Dielectrics (in Russian), Energiya, Moscow, 1965.
26. Blokhintsev, D.I., Principles of Quantum Mechanics (in Russian), Vysshaya Shkola, Moscow, 1962.
27. Landau, L.D. and Lifshits, E.M., Quantum Mechanics. Part I (in Russian), Gostekhizdat, Moscow, 1948.
28. Kiffer, I.I., Testing of Ferromagnetic Materials (in Russian), Energoizdat, Moscow 1965.
29. Frenkel, Ya.I., Introduction to the Theory of Metals (in Russian), Nauka, Moscow, 1972.
30. Landau, L.D., Akhiezer, A.I., and Lifshits, E.M., Course of General Physics. Mechanics and Molecular Physics (in Russian), Nauka, Moscow, 1969.
31. Reif, F., Statistical Physics (in Russian), Nauka, Moscow, 1972.
32. Zhurkov, S.N., Dilaton mechanism of strength of solids. FTT, 25, 3119, 1983.
33. Pettifor, D.G., Bonding and Structure of Molecules and Solids, Oxford Science Publications, Clarendon Press, Oxford, 1995.
34. Kuzmenko, V.A., Development of Ideas about the Deformation Nature of Materials (in Russian), UkrNIINTI, Kyiv, 1968.
35. Finkel, V.M., Physics of Fracture (Crack Growth in Solids) (in Russian), Metallurgiya, Moscow, 1970.
36. Greshnikov, V.A. and Drobot, Yu.V., Acoustic Emission (in Russian), Standartizdat, Moscow, 1978.
37. Novodvorsky, I., Electrons from fracture: on the electron and x-ray radiation in fracture of solids (in Russian), Izvestiya, Moscow, 1984, N160.
38. Kusov, A.A. and Vettegren, V.I., Calculation of durability of loaded chain of atoms in unharmonic approximation, FTT, 22, 3350, 1980.
39. Rzhevsky, V.V. and Novak, G.Ya., Principles of Physics of Rock. Part II. Thermo-and Electrodynamics of Rock (in Russian), Moscow Institute of Radioelectronics and Mining Electromechanics, Moscow, 1964.
40. Chalmers, B., Theory of Solidification (in Russian), Metallurgiya, Moscow, 1968.
41. Lifanov, I.S. and Sherstniov, N.G., Metrology, Means and Methods of Quality Testing in Building (in Russian), Stroyizdat, Moscow, 1979.
42. Silvestrov, A.V. and Shagimordinov, R.M., Brittle fracture of steel structures and ways of its prevention (in Russian), Problemy Prochnosti (Problems of Strength), 5, 88, 1972.
43. Ekobori, T., Physics and Mechanics of Fracture and Strength of Solids (in Russian), Metallurgiya, Moscow, 1971.
44. Mack Lin, D., Mechanical Properties of Metals (in Russian), Metallurgiya, Moscow, 1965.
45. Fridel, Zh., Dislocations (in Russian), Mir, Moscow, 1967.
46. Nozdriov, V.F. and Senkevich, A.A., Course of Statistical Physics (in Russian), Vysshaya Shkola, Moscow, 1969.
47. Terletsky, Ya.P., Statistical Physics (in Russian), Vysshaya Shkola, Moscow, 1966.
48. Samoylovich, A.G., Thermodynamics and Statistical Physics (in Russian), Gostekhizdat, Moscow, 1956.
49. Leontovich, M.A., Introduction to Thermodynamics (in Russian), Tekhizdat, Moscow, 1952.
50. Komarovsky, A.A., Diagnostics of structural materials (in Russian), Tekhnicheskaya Diagnostika i Nerazrushayushchiy Kontrol, 3, 8, 1999.
51. Komarovsky, A.A., Diagnostics of stress–strain state (in Russian), Control. Diagnostika, 2, 22, 2000.
52. Komarovsky, A.A., Fracture Mechanism of Concrete and Advanced Methods for Ensuring Its Durability (in Russian), Znaniye, Kyiv, 1986.
53. Frenkel, S.Ya., Polymers. Problems, prospects, forecasts (in Russian), in Physics of Today and Tomorrow (Scientific Forecasts), Nauka, Leningrad, 176, 1973.
54. Iveronov, B.I. and Revkovich, G.P., Theory of X-Ray Dissipation (in Russian), Izd-vo MGU, Moscow, 1978.
55. Bezukhov, N.I., Fundamentals of Theory of Elasticity, Plasticity and Creep (in Russian), Vysshaya Shkola, Moscow, 1968.
56. Bogachiov, I.N., Weinstein, A.A., and Volkov, S.D., Introduction to Statistical Science of Metals (in Russian), Metallurgiya, Moscow, 1972.
57. Umansky, Ya.S., Physical Principles of Science of Metals (in Russian), Metallurgiya, Moscow, 1965.
58. Haasen, P., Physical Metallurgy, 3rd ed., Cambridge University Press, Cambridge, 1996.
59. Regel, B.R. and Slutsker, A.I., Kinetic nature of strength (in Russian), in Physics of Today and Tomorrow, Nauka, Leningrad, 90, 1973.
60. Pozdnyakov, O.F. and Regel, V.R., Kinetics of cracks nucleation (in Russian), Solid State Phys., 10, 3669, 1968.
61. Zhurkov, S.N., Kuksenko, V.S., and Slutske, R.A.I., Thermal domains and crystal instability (in Russian), Phys. Solid, 11, 296, 1969.
62. Ashby, M.F., On the engineering properties of materials. Overview N 80. Acta Metall., 37, 5, 1273, 1989.
63. Tsarnekki, E.G., Stesi, D.T., and Zimmerman, D.K., Refractory metals in space engineering (in Russian), in Properties of Refractory Metals and Alloys, Metallurgiya, Mocsow, 277, 1968.
64. Lement, B.S. and Perlmuter, I., Mechanical properties of alloys based on refractory metals (in Russian), in Properties and Treatment of Refractory Metals and Alloys, Izdatelstvo Inostr. Liter., Moscow, 52, 1961.
65. Khimushin, F.F., Heat Resistant Steels and Alloys (in Russian), Metallurgiya, Moscow, 1964.
66. Luzhnikov, L.P, ed., Materials in Machine-Building. Nonferrous Metals and Alloys (in Russian), Mashinostroyeniye, Moscow, V 1, 1967.
67. Mogilevsky, E.P., ed., Materials in Machine Building. Structural Steel (in Russian), Mashinostroyeniye, Moscow, V. 11, 1967.
68. Khimushin, F.F., ed., Materials in Machine Building. Special Steels and Alloys (in Russian), Mashinostroyeniye, Moscow, V. III, 1968.
69. Popov, V.A., Silvestrovich, S.I., and Sheidlin, I.Yu., ed., Materials in Machine Building. Nonmetallic Materials (in Russian), Mashinostroyeniye, Moscow, V. IV, 1968.
70. Kozlov, P.M., Use of Polymer Materials in Loaded Structures (in Russian), Khimiya, Moscow, 1966.
71. Brener, S., Factors Affecting the Strength of Filamentary Crystals. Fiber Composite Materials (in Russian), Metallurgiya, Moscow, 24, 1967.
72. Honeycomb, R., Plastic Deformation of Metals, Lyubov, B.Ya., ed. (in Russian; trans. from English), Mir, Moscow, 1972.
73. Gerasimov, E.P., Martynov, V.M., and Sassa, V.S., Heat Resistant Concretes for Electric Furnaces (in Russian), Energiya, Moscow, 1969.
74. Garnier, V., Etude de la tenacite et de comportement de quatre aciers sous differentes conditions de temperature et de vitesse de deformation, These, Institut National Polytechnique de Lorraine, France, 116, 1984.
75. Ryzhova, S.I, Study of operation of bent reinforced concrete components at uniform heating up to 250°C, Ph.D Thesis (in Russian), NIIZhB, Moscow, 1967.
76. Bartenev, G.M., Structure and Mechanical Properties of Inorganic Glasses (in Russian), Stroyizdat, Moscow, 1996.
77. Hertzfeld, G.-M., Physics of melting, Phys. Rev., 46, 995, 1934.
78. Weiner, I.H. and Boley, B.A., Thermal stresses formed on solidification, Mech. Phys. Solids, 11, 145, 1963.
79. Murgatryed, J., Two-phase states of solids, Nature, 154, 51, 1944.
80. Fersman, A.E., Geochemistry (in Russian), ONTI, Press, Moscow, 1937.
81. Frenkel, Ya.I., Kinetic Theory of Fluids (in Russian), AN SSSR Press, Moscow, 1946.
82. Osipov, K.A., Problems of Theory of Heat Resistance of Metals and Alloys (in Russian), AN SSSR Press, Moscow, 1960.
83. Frenkel, Ya.I., Statistical Physics (in Russian), AN SSSR Press, Moscow, 1948.
84. Born, M. and Gopper-Mayer, M., Theory of Solids (in Russian), ONTI Press, Moscow, 1938.
85. Fermi, E., Molecules and Crystals (in Russian), IL Press, Moscow, 1947.
86. Kitaygorodsky, A.I., Molecular Crystals (in Russian), Nauka, Moscow, 1971.
87. Rid, V.T., Dislocations in Crystals (in Russian), Metallurgizdat., Moscow, 1957.
88. Gurevich, V.B. and Minorsky, V.P., Analytical Geometry (in Russian), Phyzmatgiz, Moscow, 1959.
89. Vorobiov, A.A. and Borobiov, V.A., Electrical Break-Down and Fracture of Solid Dielectrics (in Russian), Vysshaya Shkola, Moscow, 1966.
90. Berri, D.P., Fracture of Glassy Polymer. Fracture, Libovits, G., ed. (in Russian), Mir, Moscow, V. 7, 218, 1973.
91. Sammal, O.B., Stresses in Concrete and Prediction of Service Life of Concrete and Reinforced Concrete Structures and Constructions (in Russian), Valgus, Tallin, 1980.
92. Dondik, I.G., Mechanical Tests of Metals (in Russian), Izdatelstvo AN USSR, Kyiv, 1962.
93. Komarovsky, A.A., Scale effect: origins, forms of appearance and dangerous consequences (in Russian), Tekhnicheskaya Diagnostika i Nerazrushayushchiy Kontrol, 4, 7, 2001.
94. Alexandrov, A.P. and Zhurkov, S.N., Phenomenon of Brittle Fracture (in Russian), ONTI Press, Moscow, 1933.
95. Gul, V.E., Structure and Strength of Polymers (in Russian), Khimiya, Moscow, 344, 1971.
96. Peras, A. and Dauknis, V., Strength of Refractory Ceramics and Methods of Its Study (in Russian), Mokslas, Vilnius, 1977.
97. Pisarenko, G.S. and Troshchenko, V.T., Statistical Theories of Strength and Their Application for Metal Ceramic Materials (in Ukrainian), AN USSR Press, Kyiv, 1961.
98. Krol, I.S. et al., Study of scale effect manifestation during compression testing of concrete cubic samples. Investigations in the field of mechanical measurements (in Russian), Proc. VNIIFTRI, N 8 (38), Moscow, 206, 1971.
99. Krol, I.S., Krasnovsky, R.O., and Markov, A.I., On the origins of scale effect in concrete under compression (in Russian), Izvestiya VUZOV, Stroitelstvo i Arkhitektura, Novosibirsk, 3, 155, 1975.
100. Ziobron, V., Results of investigation of the scale effect in reinforcing bars (in Russian), in Ingenernye Konstruktsii, LISI Press, Leningrad, 79, 1969.
101. Chechulin, B.B., Scale Effect and Statistical Nature of Strength of Metals (in Russian), Metallurgizdat, Moscow, 1963.
102. Pisarenko, G.S. and Lebedev, A.A., Resistance of Materials to Deformation and Fracture in the Complex Stressed State (in Russian), Naukova Dumka, Kyiv, 1969.
103. Kontorova, T.A. and Frenkel, Ya.I., Statistical theory of strength of real crystals (in Russian), J. Tech. Phys.s, 11, 3, 17, 1941.
104. Kontorova, T.A., One of the applications of statistical theory of the scale effect (in Russian), J. Tech. Phys., 13, 6, 13, 1943.
105. Fudzin, T. and Dzako, M., Fracture Mechanics of Composite Materials (in Russian), Mir, Moscow, 1982.
106. Troshchenko, V.T., Fatigue and Inelasticity of Metals (in Russian), Naukova Dumka, Kyiv, 1971.
107. Sosnovsky, L.A., Influence of length of samples on critical tensile stresses of steel (in Russian), Problemy Prochnosti, 4, 30, 1976.
108. Komarovsky, A.A., Radchenko, L.N., and Chuiko, P.A., Variability of strength characteristics of conventional and high-strength concretes (in Russian), Stroitelnye Materialy i Konstruktsii, 1, 17, 1972.
109. Berezovik, S.V., Korzun, S.I., and Bich, P.M., Experimental study of strength of the concrete in bending tension (in Russian), Proc. Instit. Civil Eng., Minsk, 84, 1979.
110. Sytnik, V.I. and Ivanov, Yu.A., Experimental studies of strength and deformability of high-strength concretes (in Russian), High-strength concretes, Kyiv, 54, 1967.
111. Vorobiov, A.A. and Zavadskaya, E.K., Electric Strength of Solid Dielectrics (in Russian), GITL Press, Moscow, 1956.
112. Komarovsky, A.A., Measuring of indirect indices of hardness during strength testing of concrete by nondestructive methods (in Russian), Stroitelnye Materialy i Konstrukcii, 1, 35, 1976.
113. Golikov, A.E., Influence of moulding technology of high-strength concretes on their physical–mechanical properties (in Russian), Beton i Zhelezobeton, 9, 17, 1967.
114. Golikov, A.E., Study of physical–mechanical properties of high-strength concretes for transport structures allowing for the effect of some technological factors, Ph.D Thesis (in Russian), SRI of Concrete, Moscow, 1968.
115. Pisanko, G.N., Study of strength and strain properties of high-strength concretes, Ph.D Thesis (in Russian), SRI of Civil Engineering, Moscow, 1960.
116. Pinus, B.I., Study of properties of high-strength concretes in view of their operating in prestressed structures (in Russian), Ph.D Thesis, SRI of Railway Transport, Novosibirsk, 1968.
117. Saltykov, S.A., Stereometric Metallography (in Russian), Metallurgiya, Moscow, 1970.
118. Scillard, R., Review of durability of prestressed reinforced concrete structures in USA, Canada, countries of basin of the Pacific Ocean and the Far East, Transl. from English, N 1747, TsINIS Press, Moscow, 1969.
119. Komarovsky, A.A., Physical principles of adaptation of materials and structures to service conditions (in Russian), Tyazholoye Mashinostroyeniye, 5, 7, 2001.
120. Komarovsky, A.A., Popovich, G.A., and Radchenko, L.N., Method of determination of strength and volume structural heterogeneity of building materials (in Russian), Author’s cert. of USSR N 359593, Bull. Inv., 35, 117, 1972.
121. Komarovsky, A.A., Method of determination of solidified concrete composition (in Russian), Author’s cert. N 566182, Bull. Izobr., 27, 128, 1977.
122. Komarovsky, A.A. and Milov, V.A., Complex elastic–plastic method for nondestructive testing of strength of concrete (in Russian), Stroitelnye Materialy i Konstruktsii, 6, 29, 1972.
123. Komarovsky, A.A., Radchenko, L.N., and Petrov, A.N., Efficiency of methods of nondestructive testing of strength of light concretes (in Russian), Stroitelnye Materialy i Konstruktsii, 3, 20, 1972.
124. Komarovsky, A.A. and Novgorodsky, M.A., On accuracy, sensitivity and resolution of methods for nondestructive testing of concrete (in Russian), in Application of Nondestructive Methods to Test Quality of the Concrete, Reinforced Concrete Structures and Parts, Stroyizdat, Moscow, 35, 1973.
125. Komarovsky, A.A., On the problem of estimation of reliability of reinforced concrete structures by instrumentation methods (in Russian), in Problems of Reliability of Reinforced Concrete Structures, Kuibyshev, 74, 1975.
126. Komarovsky, A.A., Physical principles of prediction of reliability of structures by instrumentation methods (in Russian), in Experimental Investigations of Engineering Structures, Kiev, 95, 1981.
127. Berdichevsky, G.I. et al., Reference Book on Testing of Strength of Concrete in Structures Using Mechanical Devices (in Russian), Stroyizdat, Moscow, 1972.
128. Novgorodsky, M.A., Komarovsky, A.A., and Toporovsky, Yu.N., Study of sensitivity of methods for nondestructive testing of strength of heavy concrete (in Russian), Abstracts on R&D in VUZ USSR, 13, 53, 1978.
129. Komarovsky, A.A., Metrological support of nondestructive testing of strength of concrete, in Experimental Investigations of Engineering Structures (in Russian), Kiev, 106, 1981.
130. Chonkvetadze, V.A. and Chikovani, T.D., Application of the methods of mathematical statistics for quality control of concrete (in Russian), Beton i Zhelezobeton, 6, 17, 1966.
131. Leonovich, M.F., On the nature of change of the variation coefficient of compressive strain of concrete (in Russian), Beton i Zhelezobeton, 2, 43, 1980.
132. Krasnyi, I.M., Estimation of accuracy of testing of concrete by the scatter indices of twin samples (in Russian), in Technology and Properties of Heavy Concrete, SRI of Concrete, Moscow, 1971.
133. Ratz, A.G., Statistical control of strength of concrete at the reinforced concrete plants (in Russian), Beton i Zhelezobeton, 10, 17, 1968.
134. Mints, Sh.I., Spread of strength indices of concrete of different buildings (in Russian), in Investigations of Conventional and PreStressed Reinforced Concrete Structures, Stroyizdat, Moscow, 236, 1949.
135. Diosov, A.E. and Malinovsky, A.G., Statistical quality control of concrete in manufacturing of prefabricated parts and structures (in Russian), in Technology and Properties of Heavy Concrete, Stroyizdat, Moscow, 159, 1971.
136. Dmitriev, V.P., On technology factor and classes of strength homogeneity of concrete (in Russian), in Reinforced Concrete and Reinforced Concrete Structures, Knizhnoye Izdatelstvo, Sverdlovsk, 358, 1967.
137. Ruch, X., Der Einfluss der Festigkeit bei der Betonkontrolle, Der Bauingenieur, 10, 11, 1962.
138. Conrad, F., Zur Gutebeurteilung des Betons nach statistischen Werten, Baustoffindustrie, 4, 13, 1964.
139. Pisanko, G.P. and Golikov, A.A., Strength and deformability of high-strength concretes based on super high-early-strength cement (in Russian), Beton i Zhelezobeton, 7, 22, 1966.
140. Skatynsky, V.I., Chuiko, P.A., and Komarovsky, A.A., Study of physical–chemical characteristics of high-strength concretes (in Russian), Stroitelnye Materialy i Konstruktsii, 5, 13, 1971.
141. Vasiliev, P.M., Plastic compressive properties of concrete and their influence on service of some components of concrete and reinforced concrete structures (in Russian), Ph.D Thesis, Institute of Civil Engineering, Leningrad, 1951.
142. Markov, A.I., Estimation of strength of brittle bodies on the basis of parameters of their structure and fracture behavior by an example of concretes (in Russian), in Investigations in the Field of Mechanical Measurements: Trans. VNIIFTRI, Moscow, 8 (38), 125, 1971.
143. Komarovsky, A.A., On the time dependence of statistical parameters of strength of concrete (in Russian), in Issue: Problems of Reliability of Reinforced Concrete Structures, Kuibyshev, 37, 1972.
144. Komarovsky, A.A., Semiglazova, O.M., and Spesivtsev, V.P., Nondestructive testing of strength of concrete with allowance for the time factor (in Russian), Transportnoye Stroitelstvo, 3, 24, 1977.
145. Novgorodsky, M.A., Komarovsky, A.A., and Lemechko, V.A., Influence of time factor on main parameters of strength distribution of concrete (in Russian), Izvestiya VUZOV, Stroitelstvo i Arkhitektura, Moscow, 7, 66, 1982.
146. Gansen, T., Creep and Stress Relaxation in Concrete (in Russian), Stroyizdat, Moscow, 1963.
147. Gnutov, I.A. and Osipov, A.D., Testing of concrete after 30 years service of a structure (in Russian), Gidrotekhnicheskoye Stroitelstvo, 3, 10, 1973.
148. Sosnovsky, L.A., Tribofatics: Problems and Prospects (in Russian), Bel. NIIZhT Press, Gomel, 1989.
149. Blanter, M.E., Procedure of Study of Metals and Experimental Data Treatment (in Russian), Metallurgizdat, Moscow, 1952.
150. Ivanitsky, G.A., Stereology (in Russian), Nauka i Zhizn, 9, 65, 1972.
151. Nevill, M., Properties of Concrete (in Russian), Stroyizdat, Moscow, 1972.
152. Volf, I.V. et al., Determination of strength of concrete structures by the method of pulling out of bars (in Russian) Beton i Zhelezobeton, 10, 17, 1973.
153. Chuiko, P.A., Study of strength of high-strength concretes in structures by nondestructive methods (in Russian), Ph.D Thesis, NII building structures, Kyiv, 1973.
154. Kublin, I.Ya., Study of concrete in complex compressive and tensile loading (in Russian), Ph.D Thesis, Riga Civil Engineering Institute, Riga, 1961.
155. Nogin, S.I., Shtaltovny, V.A., and Posvizhsky, E.G., Boundaries of microcracking of concrete under compression (in Russian), Beton i Zhelezobeton, 3, 16, 1980.
156. Pochtovik, G.Ya. and Shkolnik, I.E., Determination of a Low Limit of Microcracking by the Ultrasonic Test Results. Issue Nondestructive Testing of Materials (in Russian), Stroyizdat, Moscow, 71, 1971.
157. GOST 21243-85. Concretes. Determination of Strength by the Method of Pulling Out with Cleavage, Standartizdat, Moscow, 1985.
158. Kuznetsov, V.D., Surface Energy of Solids (in Russian), Energia, Moscow, 1954.
159. Komarovsky, A.A., Nondestructive testing of strength and homogeneity of concrete based on super high-frequency electromagnetic field (in Russian), in: Trans. All-Union Conf. “Integration of Nondestructive Testing Methods”, Issue, Stroyizdat, Moscow, 135, 1973.
160. Komarovsky, A.A., Spesivtsev, V.P., and Zhariy, A.E., Control of reinforced concrete structures by super high-frequency radio waves (in Russian) Transportnoye Stroitelstvo, 10, 52, 1976.
161. Matveev, V.I. and Paveliev, V.A., Microwaves propagation in building materials. Issue Commercial Application of Radiointroscopy. Tsniitei Priborostroyeniya, Moscow, 18, 1967.
162. Rudakov, V.N., Belyanin, A.N., and Zelenkov, A.L., On Macroscopic Structural Anisotropy of Industrial Products (in Russian), Defektoskopiya, Moscow, 5, 19, 1966.
163. Odinets, L.L., Optical method for measurement of dielectric permittivity and dielectric losses of solid dielectrics in centimeter range (in Russian), J. Tech. Phys., 19, 1, 107, 1949.
164. Sloushch, V.G., Application of electromagnetic waves of the super high-frequency range for nondestructive testing of refractory products (in Russian), Defektoskopiya, 6, 33, 1968.
165. Klevtsov, V.A., Main trends in improvement of methods for evaluation of the state of load-carrying reinforced structures in their restoration (in Russian), Promy-shlennoye Stroitelstvo, 8, 15, 1984.
166. Byrin, V.N., Application of acoustic emission for diagnostics of industrial objects (in Russian) Izmereniye, Control, Avtomatizatsiya, 3, 7, 1977.
167. Novikov, P.V. and Weinberg, V.E., On physical nature of acoustic emission in deformation of metallic materials (in Russian), Problemy Prochnosti, 12, 65, 1977.
168. Duncgan, H.L., Acoustic emission, Issue ASTM, STP-505, 101, 1972.
169. Hsu, T.T. et al., Acoustic emission, Acoustic J., 60, 15, 1963.
170. Borodin, Yu.P., Gulevsky, I.V., and Nikolaichev, A.N., Acoustic emission — a new method of nondestructive testing (in Russian), Review N 516, TsAGI Press, 1977.
171. Ivanov, V.I., Methods and Equipment of Control Using Acoustic Emission (in Russian), Mashinostroyeniye, Moscow, 1980.
172. Greshnikov, V.A. and Drobot, Yu.V., Acoustic Emission (in Russian), Gosstandart, Moscow, 1976.
173. Ckoblo, A.B., Zhigun, A.P., Some aspects of hardness measurement using acoustic emission (in Russian), Zavodskaya Laboratoriya, 2, 6, 1980.
174. Hatton, R.H. and Ordt, R.N., Acoustic Emission Issue Methods of Nondestructive Testing, Sharp, R.S., ed., Mir, Moscow, 27, 1972.
175. Acoustic Emission. Materials symposium presented at the December committee week of American Society for Testing and Materials, Bal Harbor, Florida, December 7–8, 1971.
176. Nogin, S.I. and Shlyaktsu, M.I., Apparatus SAKEM-1 for Measurement of Acoustic Emission (in Russian), NIISK Gosstroya of the USSR Press, Moscow, 1976.
177. Jons, R. and Fekeoaru, I., Nondestructive Testing of Concrete (in Russian), Stroyizdat, Moscow, 1974.
178. Kvirikadze, O.N., Influence of loading rate on deformability and tensile strength of concrete (in Russian), Beton i Zhelezobeton, 1, 9, 1962.
179. Nikalau, V., Influence of loading rate on strength of concrete (in Russian), Beton i Zhelezobeton, 3, 17, 1959.
180. Verker, M., Influence of loading rate and other factors on strength and elastic properties of rock (in Russian), Transl. from Spanish, VNIIFTRI Press, 54, 1959.
181. Nemets, I., Dependence between material strength and nature of variations of loading with time (in Russian), Express-Information “Detali mashin,” 23, 17, 1962.
182. Sheikin, A.E. and Nikolaeva, V.G., On elastic–plastic tensile properties of concrete (in Russian), Beton i Zhelezobeton, 9, 15, 1959.
183. Bazhenov, Yu.M., High-Strength Fine-Grained Concrete for Reinforced Cement Structures (in Russian), Gosstroyizdat, Moscow, 1963.
184. Grushko, I.M., Glushchenko, N.F., and Ilyin, A.G., Structure and Strength of Road Cement Concrete (in Russian), Khisi Press, Kharkov, 1965.
185. Krol, I.S. and Krasnovsky, R.O., Some problems of the procedure used for determination of tensile characteristics of concrete in axial compression (in Russian), in Issue Experimental Studies of Engineering Structures, Nauka, Moscow, 42, 1973.
186. Nilender, Yu.A., Mechanical properties of concrete and reinforced concrete (in Russian), in Reference Book for Designer of Industrial Structures, ONTI Press, Moscow, Vol. IV, 47, 1935.
187. Ostashov, I.A., Dependence of deformation of materials upon the time and rate of loading (in Russian), Sci. Lett. Acad. Building Architec. Ukr. SSR, AN USSR Press, Kyiv, 1953.
188. Voblikov, V.S. and Tedder, R.I., Influence of loading rate on cleavage of rock (in Russian), in Issue Study of Physical–Mechanical Properties and Method of Explosion Destruction of Rock, Nauka, Moscow, 166, 1976.
189. Kuntysh, M.F. and Tedder, R.I., Influence of loading rate on compression strength of rock (in Russian), Study of Physical–Mechanical Properties and Method of Explosion Destruction of Rock, Nauka, Moscow, 60, 1970.
190. GOST 10180-78, Concretes. Methods for Determination of Compressive and Tensile Strength, Standartizdat, Moscow, 1978.
191. GOST 310.4-76, Cements. Methods for Determination of Bending and Tensile Strength, Standartizdat, Moscow, 1976.
192. GOST 18105-82, Concretes. Homogeneity and Strength Testing, Standartizdat, Moscow, 1982.
193. GOST 21217-85, Concretes. Testing and Estimation of Strength and Homogeneity by Nondestructive Methods, Standartizdat, Moscow, 1985.
194. GOST 12004-86, Reinforcing Steel. Methods of Tensile Tests, Standartizdat, Moscow, 1986.
195. GOST 8829-77, Prefabricated Reinforced Concrete Structures and Parts. Methods of Testing and Estimation of Strength, Rigidity and Crack Resistance, Standartizdat, Moscow, 1977.
196. Rozhkov, A.I., Relationship between structural changes and deformations in concrete under long-time loading (in Russian), Izvestiya VUZOV Stroitelstvo i Arkhitektura, 5, 14, 1970.
197. Stepanov, G.V., Elastic–Plastic Deformation of Materials in Pulsating Loads (in Russian), Naukova Dumka, Kyiv, 1979.
198. Mayer, M.A. and Mur, L.E., ed., Shock Waves and High Speed Deformation Phenomena (in Russian), Metallurgiya, Moscow, 1984.
199. Gvozdev, A.A., State-of-art and problems of theory of reinforced concrete (in Russian), Beton i Zhelezobeton, 2, 3, 1955.
200. Gnedenko, B.V., Statistical methods in theory of realiability (in Russian), Reliability of hoisting vehicles, Trans. VNIIPTTMash, V. 1(96), 134, 1970.
201. Bolotin, V.V., Application of the Methods of Probability and Reliability Theories for Design of Structures (in Russian), Stroyizdat, Moscow, 1971.
202. Gnedenko, B.V., Some problems of reliability theory as the subject of investigation and teaching (in Russian), Reliability and durability of machines and equipment, Moscow, 87, 1972.
203. Melomedov, I.M., Physical Principles of Reliability (in Russian), Energiya, Leningrad, 1970.
204. Sedyakin, N.M., On one physical principle of reliability theory (in Russian), Izv. AN SSSR “Technicheskaya Kibernetika”, 3, 18, 1966.
205. Komarovsky, A.A., Equation of state and durability of solids (in Russian), Ogneupory i Tekhnicheskaya Keramika, 6, 7, 2001.
206. Komarovsky, A.A., Physics of failures of structural materials (in Russian), Tekhnicheskaya Diagnostika i Nerazrushayushchiy Kontrol, 1, 3, 2001.
207. Betekhtin, V.I., Time and temperature dependence of strength of solids (in Russian), Experimental Investigations of Engineering Structures, Nauka, Moscow, 10, 1979.
208. Komarovsky, A.A., Prediction of residual life and durability (in Russian), Tekhnicheskaya Diagnostika i Nerazrushayushchiy Kontrol, 3, 3, 2000.
209. Komarovsky, A.A., Prediction of life of materials and structures (in Russian) Kontrol. Diagnostika, 12, 8, 2000.
210. Medeksha, G.G. and Zhitkyavichus, V.P., Study of long-time cyclic strength in soft asymmetrical and hard loading (in Russian), Problemy Prochnosty, 6, 40, 1978.
211. Komarovsky, A.A., Fatigue of materials: physical nature, prediction, prevention and relief (in Russian), Tekhnicheskaya Diagnostika i Nerazrushayushchiy Kontrol, 1, 35, 2000.
212. Strizhalo, V.A. and Kalashnik, M.V., Cyclic creep of structural alloys and its relationship with parameters of acoustic emission (in Russian), Tekhnicheskaya Diagnostika i Nerazrushayushchiy Kontrol, 9, 58, 2000.
213. Brinkman, C.R. and Korth, G.E., Low cycle fatigue and hold time comparisons of irradiated and unirradiated type 316 stainless steel (in Russian), Met. Trans., 3, 792, 1974.
214. Selton, R.P., High strain fatigue of 20 Cr/25 Ni NB steel at 1025 K. Part II. Total endurances (in Russian), Mater. Sci. Eng., 19, N 1, 31, 1975.
215. Complex of means for nondestructive testing of strength of concrete in CMM-2 structures (in Russian), VEM-3, EI NII Stroitelstva Gosstroya ESSR, Tallin, 1978.
216. Sammal, O.Yu. and Rulkov, A.A., VSM-4 microprocessor sclerometer for determination of strength of concrete (in Russian), Investigations in the Field of Building, Valgus, Tallin, 1981.
217. Zhurkov, S.N., Kinetic nature of strength (in Russian), Inorg. Mater., 3, 13, 1967.
218. Oding, I.A. et al. Theory of Creep and Long-Time Strength of Metals (in Russian), Metallurgizdat, Moscow, 1959.
219. Dlin, A.M., Mathematical Statistics in Engineering (in Russian), Nauka, Moscow, 1951.
220. Garofalo, F., Fundamentals of Creep and Creep-Rupture in Metals, MacMillan; New York, 1965.
221. Mechovsy, J.J. and Passoja, D.E., Fractal Aspect of Materials, MRS, Pittsburgh, PA, 1985.
222. Fractography Handbook, Chubu Keiei Kaihatsy Center, Nagoya, Japan, 1985.
223. Brostom, W. and Corneliussen, R.D., Fracture of Plastics, New York, Hanser Publ., 1986.
224. Elizavetin, M.A., Improving Reliability of Machines (in Russian), Mashinostroyeniye, Moscow, 1973.
225. Ostreikovsky, V.A., Multifactorial Reliability Testing (in Russian), Energiya, Moscow, 1978.
226. Newkerk, D.B., General theory, mechanism and kinetics (in Russian), in Ageing Alloys, Transl. from English, Zakharova, M.I., ed., Metallurgizdat, Moscow, 74, 1962.
227. Parshin, A.M., Structure, Strength and Radiation Damage of Corrosion-Resistant Steels and Alloys (in Russian), Metallurgiya, Chelyabinsk, 1988.
228. Stanyukovich, A.V., Brittleness and Plasticity of Refractory Materials (in Russian), Metallurgiya, Moscow, 1967.
229. Gorynin, I.V. et al., Influence of neutron irradiation on radiation strengthening and embrittlement of titanium alloy and titanium-zirconium system (in Russian), Radiation Defects in Metallic Crystals, Issue Nauka Kaz.SSR, Alma-Ata, 123, 1978.
230. Pisarenko, G.S. and Kiselevsky, V.N., Strength and Plasticity of Materials in Radiation Flows (in Russian), Naukova Dumka, Kyiv, 1979.
231. Grounes, M., Review of Swedish work on irradiation effects in canning and core support materials. Effects of irradiation on structural metals. Philadelphia (PA), 200, 1967.
232. Irwin, J.E. and Bement, A.L., Nature of radiation damage to engineering properties of various stainless alloys. Effect of radiation on structural metals. Philadelphia (PA), 278, 1967.
233. Gusev, A.V., Paper N 28/P339a Materials 3rd Int. Conf. Application of Nuclear Energy for Peace Purposes, Geneva, 178, 1964.
234. Ibragimov, Sh.Sh., Effect of radiation on properties of structural materials (in Russian), Proc. Symp. CMEA Countries, FEI Press, Obninsk, 44, 1967.
235. Bohm, H. and Ranck, N., J. Nucl. Mater., 23, 184, 1969.
236. Oding, I.A., Ivanova, V.S., and Burdunsky, V.V., Theory of Creep and Long-Term Strength of Metals (in Russian), Metallurgizdat, Moscow, 1959.
237. Fridman, Ya.B., Mechanical Properties of Metals (in Russian), Oborongiz, Moscow, 1952.
238. Birger, I.A. and Shorr, B.F., ed., Thermal Strength of Machine Parts (in Russian), Mashinostroyeniye, Moscow, 1975.
239. Ischenko, I.I., ed., Study and Development of Materials Used for Thermonuclear Fusion Reactor (in Russian), Nauka, Moscow, 1981.
240. Kiselevsky, V.N., Change of Mechanical Properties of Steels and Alloys under Radiation Exposure (in Russian), Naukova Dumka, Kyiv, 1971.
241. Meshchansky, N.A., Density and Strength of Concretes (in Russian), Gosstroyizdat, Moscow, 1961.
242. Effect of humidity of concrete on its compressive strength, editorial (in Russian), Techn. Inf. Industry of prefabricated reinforced concrete, Issue 7, 27, 1969.
243. Koifman, M.I. and Ilnitskaya, B.I., Effect of humidity on tensile and compressive strength of rock (in Russian), in Investigation of Physical–Chemical Properties of Rocks, Nauka, Moscow, 44, 1970.
244. Popovich, G.A. and Nikolko, A.P., Effect of humidity and age of concrete on strength indices in its testing by mechanical devices (in Russian), in Methods of Nondestructive Testing of Reinforced Concrete, Budivelnyk, Kyiv, 100, 1972.
245. Bazhenov, Yu.M., Effect of moisture content on strength of concrete at different loading rates (in Russian), Beton i Zhelezobeton, 12, 18, 1966.
246. Elissev, V.I., Influence of nonuniform distribution of moisture content of sections of reinforced concrete members (in Russian), Inzhenernye Konstrukcii, 37, 18, 1969.
247. Komarovsky, A.A. and Radchenko, L.N., On effect of moisture content of concrete on reliability and durability of prefabricated reinforced concrete structures (in Russian), Prob. Reliability Build., Issue Sverdlovsk, 92, 1972.
248. Buzhevich, G.A. and Kornev, P.A., Expanded-Clay Lightweight Concrete (in Russian), Stroyizdat, Moscow, 1963.
249. Gul, B.E., Structure and Strength of Polymers (in Russian), Khimiya, Moscow, 1971.
250. Chentemirov, M.G., Prospects of development and application of light-weight concrete structures (in Russian), Beton i Zhelezobeton, 3, 3, 1971.
251. Afanasiev, V.G., Principles of classification of integral systems (in Russian), Voprosy Philosofii, 5, 31, 1963.
252. Petrushenko, L.A., Principles of Feedback Control (in Russian), Mysl, Moscow, 1967.
253. Makhutov, N.A. and Romanov, A.N., ed., Strength of Structures in Low Cycle Loading (in Russian), Nauka, Moscow, 1983.
254. Popov, N.T. and Marfin, N.I., Choice of Rational Structures of Village Power Transmission Line Supports (in Russian), UkrNIINTI Press, Kyiv, 1969.
255. Kuznetsov, V.D., Physics of Solids (in Russian), Krasnoye Znamya, Tomsk, Vol. 2, 1941.
256. Zhurkov, S.N., Levina, B.Ya., and Sanfirova, T.P., Fluctation of properties of solids (in Russian), Solid State Phys., 2, 1960, V.2, Issue 6, 1040, 1960.
257. Kudryavtsev, I.P., Texture in Metals and Alloys (in Russian), Metallurgiya, Moscow, 1965.
258. Shmidt, V., Introduction to testing methods (in Russian), Issue Behavior of Steel under Cyclic Loads, Metallurgiya, Moscow, 441, 1983.
259. Babich, E.M., Koshlai, V.A., and Pogorelyak, A.P., Strength of concretes after short-time nonmultiple repeated compressive load (in Russian), in Problems of Reliability of Reinforced Concrete Structures, Technika, Kuibyshev, 12, 1975.
260. Akhverdov, I.N., Principles of Physics of Concrete (in Russian), Stroyizdat, Moscow, 1981.
261. Sannikov, Yu.D., On the problem of influence of microfractures on energy dissipation in glass-reinforced plastic (in Russian), Ingenernye Konstrukcii, Issue, LISI Press, Leningrad, 123, 1969.
262. Krasilnikov, K.G. and Skablevskaya, I.N., Physical–chemical nature of moist deformation of cement stone (in Russian), in Creep and Shrinkage of Concrete, NIIZhB Gosstroya SSSR, Moscow, 119, 1969.
263. Gusenkov, A.P. and Sheiderovich, R.M., Properties of cyclic deformation diagrams at elevated temperatures (in Russian), in Deformation and Fracture Resistance at Low Cycle Loading, Nauka, Moscow, 64, 1967.
264. Murakami, Y., ed., Stress Intensity Factors, Pergamon Press, Oxford, 1987.
265. Tada, H., Paris, P.C., and Irwin, G.R., The Stress Analysis of Cracks. Handbook, Del Research, Hellertown, PA, 1973.
266. Peterson, R.E., Stress Concentration Design Factors, John Wiley & Sons, New York, 1974.
267. Nair, N.V., Fracture Mechanics: Microstructure and Micromechanisms, Metals Park, OH, ASM, 1987.
268. Young, W.C., Roak’s Formulas for Stress and Strain, 6th ed., New York, McGraw-Hill, 1989.
269. Shkolnik, L.M., Cracks Growing Rate and Life of Metal (in Russian), Metallurgiya, Moscow, 1973.
270. Cherepanov, G.P., Mechanics of Brittle Fracture (in Russian), Nauka, Moscow, 1974.
271. Neiber, G., Stress Concentration (in Russian), Gostekhizdat, Moscow, 1947.
272. Gnedenko, B.V., On some problems of reliability theory as the object of investigation and teaching (in Russian), Reliability and Durability of Machines and Equipment, Issue, Standartizdat, Moscow, 87, 1972.
273. Kamke, E., Reference Book of Conventional Differential Equations (in Russian), Nauka, Moscow, 1976.
274. Smirnov, N.V. and Dunin-Barkovsky, I.V., Course of Theory of Probability and Mathematical Statistics (in Russian), Nauka, Moscow, 1969.
275. Sytnik, N.I., Theoretical prerequisites and principles of technology for manufacturing of high-strength concrete (in Russian), in High-Strength Concrete, Budivelnyk, Kyiv, 6, 1967.
276. Weibule, W.A., Statistical theory of the strength of materials, Pros. Roy. Swedish Inst. Eng. Res., Stockholm, 5, N 151, 17, 1939.
277. Kontorova, T.A., Statistical theory of strength (in Russian), J. Tech. Phys., 10, 11, 7, 1940.
278. Komarovsky, A.A., Scale effect and level of technogenic safety of engineering objects (in Russian), Tyazholoye Mashinostroyeniye, 10, 23, 2001.
279. Lermit, R., Technological Problems of Concrete (in Russian), Stroyizdat, Moscow, 1959.
280. Rumshinsky, L.Z., Elements of Probability Theory (in Russian), Nauka, Moscow, 1966.
281. Freudenthal, A.M., The Inelastic Behavior of Engineering Materials and Structures, John Wiley & Sons, New York, 1950.
282. Krol, I.S., Empiric representation of compression diagram of concrete (taken from literature) (in Russian), Trans. VNIIFTRI, Issue 8 (38), Moscow, 306, 1971.
283. Rzhevsky, V.V. and Protasov, B.I., Electrical Destruction of Rock (in Russian), Nedra, Moscow, 1972.
284. Bunin, M.V., Grushko, A.G., and Ilyin, I.M., Structure and Mechanical Properties of Road Cement Concretes (in Russian), Building Industry Press, Kharkov, 1968.
285. Krylov, N.A., Kalashnikov, V.A., and Polishchuk, S.M., Radio Engineering Methods of Quality Testing of Concrete (in Russian), Stroyizdat, Leningrad, 1966.
286. Gvozdev, A.A. and Baikov, V.N., On the problem of behavior of reinforced concrete structures at the stage close to fracture (in Russian), Beton i Zhelezobeton, 9, 22, 1977.
287. Chogovadze, D.V., Study of deformation process and tensile fracture mechanism of cement stone (in Russian), Ph.D Thesis, Tbilisi, Building Institute, 1968.
288. Vaganov, A.I., Expanded-Clay Light-Weight Concrete (in Russian), Stroyizdat, Leningrad, 1954.
289. Indenbom, V.L. and Orlov, N.A., Problems of fracture in physics of strength (in Russian), Problemy Prochnosti, 12, 21, 1970.
290. Ivanova, V.S. and Terentiev, V.F., Fatigue Nature of Metals (in Russian), Metallurgiya, Moscow, 1965.
291. Komarovsky, A.A., Periodic law of variations in state of solids (in Russian), Ogneupory i Tekhnicheskaya Keramika, 7, 7, 2001.
292. Kotsanda, S., Fatigue Fracture of Metals (in Russian), Metallurgiya, Moscow, 1976.
293. Forrest, P., Fatigue of Metals (in Russian), Mashinostroyeniye, Moscow, 1986.
294. Kuslitsky, A.V. et al., Nature of fatigue (in Russian), Stal, 2, 151, 1965.
295. Troshchenko, V.T., Strength of Metals under Alternating Loads (in Russian), Naukova Dumka, Kyiv, 1978.
296. Gudkov, A.A. and Slivsky, Yu.I., Methods for Measurement of Hardness of Metals and Alloys (in Russian), Metallurgiya, Kyiv, 1982.
297. Narisova, I., Strength of Polymer Materials (in Russian), Khimiya, Moscow, 1987.
298. Akchurin, M.M. and Regel, V.R., Study of peculiarities of deformation structure formed under concentrated load on crystal (review) (in Russian), Zavodskaya Laboratoriya, 5, 17, 1999.
299. Shcherbakov, V.I. and Titov, A.N., Study of kinetics of cracks by polarization-optical method (in Russian), Zavodskaya Laboratoriya, 7, 44, 1998.
300. Milov, V.A., Theory of shock sclerometers (in Russian), Izvestiya VUZOV, Priboros-troyeniye, V. VIII, N 8, 26, 1970.
301. Dieter, G.E., Mechanical Metallurgy, 3rd ed., McGraw-Hill, New York, 1986.
302. Johnson, W. and Mellor, P.B., Engineering Plasticity, John Wiley & Sons, New York, 1983.
303. Honeycombe, R.W.K., The Plastic Deformation of Metals, 2nd ed, Edward Arnold, London, 1984.
304. Ravichandran, K.S. and Vasudevan, A.K., Fracture resistance of structural alloys, in AASM Handbook7 Vol. 19, Fatigue and Fracture, ASM International, 381, 1996.
305. Hertzberg, R.W., Deformation and Fracture Mechanics of Engineering Materials, 3rd ed., John Wiley & Sons, New York, 1989.
306. Pagh, H.L.D., ed., The Mechanical Behavior of Materials Under Pressure, Elsevier Publishing Co., New York, 1970.
307. Collins, J.A., Failure of Materials in Mechanical Design, John Wiley & Sons, New York, 1981.
308. Chernyshev, V.N. and Sysoev, E.V. Contactless adaptive method of nondestructive testing of thermal–physical properties of materials (in Russian), Kontrol i Diagnostika, 2, 31, 2000.
309. Paton, B.E. and Nedoseka, A.Ya., New approaches to estimation of the state of welded structures and determination of their residual life (in Russian), Tekhnicheskaya Diagnostika i Nerazrushayushchiy Kontrol, 1, 8, 2000.
310. Paton, B.E. and Nedoseka, A.Ya., New approach to estimation of the state of welded structures (in Russian), Avtomaticheskaya Svarka, 9/10, 97, 2000.
311. Knysh, V.V., Determination of cyclic durability of structural members in fatigue crack arresting (in Russian), Avtomaticheskaya Svarka, 9/10, 73, 2000.
312. Lanin, V.S. and Egorov, A.G., Fracture of ductile–brittle bodies under combined action of thermal and mechanical loads (in Russian), Physika i Khimiya Obrabotki Materialov, 2, 78, 1999.
313. Pokhil, Y.A. et al., Effects of low temperatures and magnetic fields on the structure and physical and mechanical properties of structural materials (in Russian), EMRS Symposium D: Materials under extreme conditions, St. Petersburg, October 17–21, 1993, P.37.
314. Ermolaev, B.I., Thermal shock resistance of refractory metals, EMRS, 1993, Symposium, 49.
315. Dzigo, Sh. et al., Heat treatment and surfacing using light beam heating (in Russian), Avtomaticheskaya Svarka, 9/10, 171, 2000.
316. Kompan, Ya., Magnetically impelled melting of high quality titanium (in Russian), Annual Report of STCU, Kyiv, 30, 1999.
317. Golovin, Yu.I. and Morgunov, R.B., Influence of magnetic field on structure-sensitive properties of real diamagnetic crystals (in Russian), Materialovedeniye, 3, 2, 2000.
318. Fujita, Yu. et al., Development of twin-wire TIG welding process with electromagnetic control of the weld pool (in Russian), Avromaticheskaya Svarka, 9/10, 152, 2000.
319. Schetky, L.M., Shape-memory alloys, Sci. Am., 5(241), 74–92, 1979.
320. Ivanova, V.S. and Gordienko, L.K., New Trends in Improving Metal Strength (in Russian), Nauka, Moscow, 1964.
321. Stefanov, B.V., Technology of Concrete and Reinforced Concrete Products (in Russian), Budivelnyk, Kyiv, 1972.
322. Komarovsky, A.A., Behavior of solids in external fields and aggressive environments (in Russian), Khimicheskaya Phyzika, 6, 23, 2001.
323. Komarovsky, A.A., Prediction of reliability and durability (in Russian), Tyazholoye Mashinostroyeniye, 12, 16, 2000.
324. Komarovsky, A.A., Adaptation of materials and structures to service conditions (in Russian), Prikladnaya Phyzika, 5, 13, 2001.
325. Parton, V.Z., Fracture mechanics (in Russian), Nauka i Zhizn, 12, 37, 1974.
326. Pronikov, A.S., Content and fundamental trends of reliability and durability science of machines (in Russian), in Reliability and Durability of Machines and Equipment, Standartizdat, Moscow, 1972.
327. Maklyaev, P.G. and Fridman, Ya.B., Anisotropy of Mechanical Properties of Materials (in Russian), Metallurgiya, Moscow, 1969.
328. Zhukov, A.A. and Sherman, A.D., ed., Materials in Machine-Building (Cast Iron) (in Russian), Mashinostroyeniye, Moscow, V. IV, 1969.
329. Berner, R. and Kronmuller, G., Plastic deformation of single crystals (Edited by Orlov, A.N.) Mir, Moscow, 1969.
330. Troshchenko, V.T., Deformation and Fracture of Metals in High Cycle Loading (in Russian), Naukova Dumka, Kyiv, 1981.
331. Tomson, E.R. and Lempe, F.D., Eutectic refractory alloys manufactured by the method of directed solidification. Issue: Composite Materials with Metallic Matrix (in Russian), Mashinostroyeniye, Moscow, 110, 1978.
332. Komarovsky, A.A., Control of physical–chemical properties of materials (in Russian), Ogneupory i Tekhnicheskaya Keramika, 3, 8, 2001.
333. Komarovsky, A.A., Chernobyl: “Shelter.” How long will it serve? Newspaper Delovaya Ukraina, N 84 (534), November, 1997.
334. Komarovsky, A.A., “Shelter”: Avoiding errors of the past, Newspaper Delovaya Ukraina, N 87 (537), December, 1997.
335. Komarovsky, A.A., “Shelter”: What happened and why? Newspaper Vestnik Chernobylya, N 3–4, March, 1998.
336. Kartashov, K.N. and Ushakov, N.A., Ways of improving the technical level of industrial engineering (in Russian), Bulleten Stroitelnoi Tekhniki, 11, 41, 1970.
337. Shilkrut, D.I., Theory of propagation of real microcracks in solids during deformation (in Russian), Papers of AN SSSR, Moscow, 122, N 1, 17, 1958.
338. Sedyakin, N.M. and Kabanov, G.A., On substantiation of physical principle of reliability (in Russian), in Issue Engineering Means of Automatics, Nauka, Moscow, 26, 1971.
339. Gusenkov, A.P. and Kotov, P.I., Long-Time and Nonisothermal Low-Cycle Strength of Structural Elements (in Russian), Mashinostroyeniye, Moscow, 1988.
340. Komarovsky, A.A., The method how to prevent fracture of the materials and structures at subzero temperature in cold regions. 8th Int. Cold Regions Eng. Specialty Conf., Fairbanks, AK, August 7–9, 5, 1996.
341. Vashchenko, V.N., Centers of Deep-Focus Earthquakes (in Russian), Nauchnaya Kniga, Kyiv, 1995.
342. Astakhov, V.P., Metal Cutting Mechanics, CRC Press, Boca Raton, FL, 1998.
343. Trent, E.M. and Wright, P.K., Metal Cutting, 4th ed., Butterworth-Heinemann, Boston, 2000.
344. Altintas, Y., Manufacturing Automation: Metal Cutting Mechanics, Machine Tool Vibrations, and CNC Design, Cambridge University Press, Cambridge, 2000.
345. Childs, T.H.C. et al., Metal Machining. Theory and Application, Edward Arnold, London, 2000.