Project: Ukrainian scientific book in a foreign language
Authors: Lavrinenko V.I.
Year: 2019
Pages: 200
ISBN: 978-966-360-388-9
Publication Language: English
Edition: 150
Publisher: PH “Akademperiodyka”
Place Published: Kyiv

The monograph provides a information of new studies in the superhard abrasives, lists physical-mechanical characteristics of diamond grits synthesized in the various growth system and abrasive composites based on cBN micron powders structured by carbon binder. Showing the technological and energy-related aspects of allowing for and ensuring of structural orientation in the working layer of superabrasive wheels. Provides information about composites based on cBN micron powders structured by carbon binder for the application as bearing elements in the working layer of wheels. Summarizes new research on the structurally changed layer of superabrasive wheel and workpiece contact surfaces as a factor of improving their wear resistance. Shows the role of superabrasive grinding wheels in the machine tool system and restrictions by the rigidity criterion. Are new approaches to selecting the composition of process liquids as a non-coventional means of implicit polarization in diamond grinding. Shown the influence of various grinding wheel characteristics and machining conditions on the workpiece surface roughness. Shows the influence of plasma on surface modification process and thermal action on the structure and phase composition of cutting-tool composites.

Intended for scientific and technical engineering technical workers in the creation, production and application of abrasive superhard materials for processing instrumental and composite materials in mechanical engineering, as well as for teachers, postgraduates and students institutions of higher education.



1. Knysh S.V., and Sklepchik V.A., Selection of grit shape in simulating grinding processes, in Rezanie i instrument v tekhnologicheskikh systemakh (Cutting and Cutting Tools in Technological Systems), 1988, issie 39, pp. 95-98.

2. Reznikov A.N. (Ed.), Abrazivnaja i almaznaja obrabotka materialov (Abrasive and Diamond Machining of Materials). Reference book [in Russian], Moscow: Mashinostroyenie, 1977.

3. Seiki Matsui, Statistical approach to grinding mechanism influence of the distribution in depth for the position of grain tip angles, Technology Reports Tohoku University, 1972, vol. 32, No. 2, pp. 297-312.

4. Matyukha P.G., and Poltavets V.V., Geometry of a diamond grit in electrical discharge diamond grinding, Rezanie i instrument v tekhno lo gicheskikh systemakh (Cutting and Cutting Tools in Technological Systems), 1987, issue 38, pp. 23-29.

5. Mishnayevskii L.L., Iznos shlifoval’nykh krugov (Wear of Grinding Wheels) [in Russian], Kiev: Naukova Dumka, 1982.

6. Lavrinenko, V.I., and Novikov, M.V. (Ed.), Nadtverdi abrasyvni matetially v mekhanoobrobtsi. Entsykloped. Dov. (Superabrasive Materials in Machining, Encyclopedic Handbook), Kyiv: Bakul Institute for Superhard Materials, NAS of Ukraine, 2013.

7. Shul’zhenko, A.A., Sokolov, A.N., Gargin, V.G., et al., The influence of conditions of diamond crystallization in boron carbide-diamond-containing material system on the boron content of diamond,” in Uglerod. Fundamental’nye problemy nauki, materialovedenie, teknologiya (Carbon. Fundamental Research Problems, Materials Science, Technology), Moscow, Troitsk, 2012, pp. 458-462.

8. Borimskii, A.I., Delevi, V.G., and Nagornyi, P.A., Kinetics of Diamond Formation and Growth in the Fe-Si-C system, Sverkhtverdye Materialy,1999, No. 3, pp. 9-14 [J. Superhard Mater., 1999, No. 3].

9. DSTU (Ukraine State Standard) 3292-95: Synthetic Diamond Powders. General Specification, 1995.

10. M88 (Ukrainian Guidelines) 28.5-267-2006. Determination of Abrasive Ability of Synthetic Diamond Grinding Powders by Using a Special Grinding Agent, 2006.

11. M88 (Ukrainian Guidelines) 90.256-2004: Procedure of Determination of Specific Magnetic Susceptibility of Powders of Superhard Materials (SHM), 2004.

12. Petasyuk, G.A., Diagnostics of morphometric characteristics of superabrasive powders by means of digital image processing, Vidbir i obrobka informatsii, (Selection and processing of information), 2009, issue 30 (106), pp. 138-145.

13. Bogatyreva, G.P., Petasyuk, G.A., Bazalii, G.A., and Shamraeva, V.S., On morphometricuniformity of diamond micron powders, Sverkhtverdye Materialy, 2009, No. 2, pp. 71-81 [J Superhard Mater., 2009, No. 2, pp. 126-134].

14. Kamenetskaya, D.S., Korsunskaya, I.A., and Litvin, Yu.A., The influence of graphitizingelements on the melt equilibrium in iron-carbon system under high pressures, FMKh, 1978, No. 45, pp. 9-14.

15. Novikov, N.V., Nevstruev, G.F., Il’nitskaya, G.D., et al., Quality assessment of superabrasive powders, Part 1. Theoretical basis of the method for assessment of quality characteristics, Sverkhtverdye Materialy, 2006, No. 5, pp. 74-83 [J. Superhard Mater., 2006, No. 5]. Part 2. Practical application of the new method for assessment of quality characteristics, Sverkhtverdye Materialy, 2006, No. 6, pp. 58-67 [J. Superhard Mater., 2006, No. 6].

16. Bogatyreva, G.P., Nikitin, Yu.I., Lavrinenko, V.I., et al., New abrasive composite material produced at low pressures from cBN micron powders, in Sintez, specanie i svoistva sverkhtverdykh materialov: sb. nauchn. tr. (Synthesis, Sintering, and Properties of Superhard Materials. Collected Research Papers), Kiev: Logos, 2010, pp. 121-129.

17. Nikitin, Yu.I., Bogatyreva, G.P., Poltoratskii, V.G., and Petasyuk, G.A., Methods for preparing diamond powders of required grain sizes from grits of lower demand, Instrum. Svit, (Instrumental world), 2004, No. 4 (24), pp. 9-12.

18. Burmistrov, V.V., On the theory of determination of cutting forces acting on single grits in grinding brittle materials in Rezanie i instrument v tekhnologicheskikh systemakh (Cutting and Cutting Tools in Technological Systems), 1990, issue 44, pp. 14-19.

19. Evdokimov, A.E., Measurement of stresses in the grit-bond interaction zone in a grinding wheel [in Russian], Deposited in UkrNIINTI, 30 July 1987, No. 2270.

20. Uzunyan, M.D., Theoretical analysis and calculation of number of grits on the working surface of a diamond wheel in Rezanie i instrument v tekhnologicheskikh systemakh (Cutting and Cutting Tools in Technological Systems), 1978, issue 19, pp. 75-82.

21. Matsuo, T., Oshima, E., Ohbuchi, J., and Toyoura, S., Effect of grain shape on cutting force in superabrasive single-grit test, CIRP Ann., 1989, vol. 38, pp. 323-326.

22. Lavrinenko, V.I., Shklyarenko, V.V., and Sytnik, A.A., Force regularities in diamond grinding of cutting ceramics, Sverkhtverdye Materialy, 1990, No. 3, pp. 48-51.

23. Zakharenko, I.P., Osnovy almaznoi obrabotki tverdosplavnogo instrumenta (Principles of Diamond Machining of Carbide Tools), Kiev: Naukova Dumka, 1981.

24. Yang Dong Y., and Seired A.A., Model for predicting residual stresses in metal cutting, in Proc. Jap. Int. Tribol. Conf. Nagoya, Oct. 29 – Nov. 1, 1990, vol. 1, pp. 439-444, Tokyo, 1990.

25. Yatsenko, V.F., Prochnost’ kompozitsionnykh materialov (Strength of Composite Materials), Kiev: Vyshcha Shkola, 1988.

26. Shepelev, A.O., Lavrinenko, V.I., Gontar, O.G., et al., A study of the mechanism of formation of double-framework metal-containing polymer composites with cBN during programmedsintering and pressing, in Rezanie i instrument v tekhnologicheskikh systemakh (Cutting and Cutting Tools in Technological Systems), 2001, issue 60, pp. 236-241.

27. Krutov, V.I. (Ed.), Isayev, S.I., Kozhevnikov, I.A., et al., Engineering Thermodynamics. Manual [in Russian], Vysshaya Shkola, Moscow, 1991.

28. Neumark, B.E., (Fd.), Physical Properties of Steels and Alloys Used in Power Engineering. Handbook [in Russian], Energiya, Moscow, Leningrad, 1967.

29. Grabchenko, A.I. and Fedorovich, V.A., 3-D modelirovanie protsesov almazno-abrazivnoi obrabotki. Monografiya (3D Modeling of Diamond Abrasive Machining Processes. Monograph), Kharkiv: NTU “KhPI”, 2008.

30. Shepelev, A.A. and Lavrinenko, V.I., Vybor kharacteristiki krugov dlya shlifovaniya instrumental’nykh materialov. Rekomen. (Selection of Wheel Specifications for Grinding Cutting-Tool Materials. Recommendations), Kiev: ISM AN UkrSSR, 1989.

31. Tretyakov, I.P., Timofeev, V.N., Kudryashov, B.P., and Ivashinnikov, V.T., USSR Invertor’s Certificate No. 1 073 082, Byul. Izobret., 1984, No. 6.

32. Starov, V.N., Frolov, G.S., Fedotova, L.A., and Dubovykh, Yu.A., USSR Invertor’s Certificate No. 1 077 771, Byul. Izobret., 1984, No. 9.

33. Tomita, T., Suzuki, I., Imai, T., Kitajima, M., US Patent 4 385 907, Resinoid Bonded Grinding Wheel with Support Member Made of a Heat Insulating Material, 1983

34. Zatulovskii, S.S., Akabrnedzhad, V., Kosinskaya, A.V., et al., New Abrasion-Resistant Materials for Friction Units in Minning Engineering, in Effektivnost’ realizatsii nauchnogo, resursnogo i promyshlennogo potenstsiala v sovremennykh usloviyakh. Materialy IV Promyshl. Konf. Mezhdunar. uchastiem. (Efficiency of Realization of Scientific, Resource, and IndustrialPotential under Present-Day Conditions. Proc. IV Industrial Conference with InternationalAttendance, Slavskoye. The Carpathians, 2-4 February, 2004), Kiev: UITs NTT, 2004, pp. 104-106.

35. Konovalov, V.A., Matskevich, V.P., and Stepanenko, T.O., A Study of Interaction betweenSodium Polyphosphate and Bronze Matrix during Granulation and Sintering of MetalDiamond Composites, in Abrazivosoderzhashchie kompozity iz sverkhtverdykh materialov. Sb. nauch. trudov (Abrasive-containing Composites of Superhard Materials. Collected Research Papers), Kiev: ISM AN UkrSSR, 1990, pp. 71-77.

36. Stepanov, V.A., Oleinik, E.V., Vysotskii, S.P., et al., Diamond-Containing Composite MaterialBased on Acetone-Formaldehyde resin and Liquid Glass, in Kompozitsionnye materialy v promyshlennosti, Materialy XXVII mezhdunar. konf. (Composite Materials in Industry. Proc. XXVII Int. Conf., Yalta, 28 May-1 June, 2007), Kiev, UITs NTT, 2007, p. 113.

37. Lavrinenko, V.I., Solod, V.Yu., Sytnik, B.V., and Nikitin, Yu.I., The use of bearing elements in structure of superabrasive wheel working layer to improve the wheel performance, Sverkhtverdye Materialy, 2011, No. 1, pp. 72-79 [J. Superhard Mater., 2011, No. 1, pp. 54-59].

38. Lavrinenko, V.I., Sytnik, B.V., Poltorats’kyi, V.G., Bochechka, O.O., and Solod, V.Yu., Composites based on cBN micron powders structured by carbon binder for the application as functional elements in the working layer of diamond-abrasive tools. Part 1. Composite grits asabrasive elements, Sverkhtverdye Materialy, 2014, No. 3, pp. 65-72 [J. Superhard Mater., 2014, No. 3, pp. 193-198].

39. Geller, Yu.A., Instrumental’nye stali (Tool Steels), Moskow: Metallurgiya, 1975.

40. Graham W., Nee A. The grinding of tool steels with a diamond abrasive wheel, Int. J. Mash. Tool Des. and Res., 1974, vol. 14, No. 2, pp. 175-185.

41. Marshintsev, V.K. and Dudko, E.A., Industrial diamonds and production of diamond tools in RS(Ya) in Nauchno-informatsionnyi cbornik NNITs almazov (Science and Information Collection of Papers of NSRC of Diamonds), Yakutsk, RF: izd. Kundel, 2003, pp. 21-24.

42. Poltoratskiy V. G., Petasyuk, G. A., Safonova, M. N., Bochechka, A. A., Tkach, V. N. And Shamraeva, V. S. A Novel Composite Abrasive Material of Unmarketable Natural Diamond Powder, Sverkhtverdye Materialy, 2014, No. 2 [Journal of Superhard Materials, 2014, Vol. 36, No. 2 , pp. 136-144].

43. Lavrinenko, V.I., Devits’kyi, O.A., Sytnik, B.V., et al., Effect of the functional impurities in aworking layer of wheels from superhard materials and coatings of grains on the electrization in grinding, in Protsesy mekhanichnoi obrobky v mashynobuduvanni (Processes of mechanical machining in machine building), Collect. Sci. Papers of Zhytomyr State Technical University, Zhytomyr, Ukraine: izd. ZhDTU, 2010, issue 9, pp. 92-98.

44. Safonova, M.N., Petasyuk, G.A, and Syromyatnikova, A.S., Comp’yuterno-analiticheskie metody diagnostiki ekspluatatsionnykh kharakteristik almaznykh poroshkov i kompozitsionnykh materialov na ikh ocnove (Computer-and-analytical methods of diagnostic of operational charac teristics of diamond powders and composite materials based on them), Novosibirsk, RF: Izd. SD of RAN, 2013.

45. Novikov, N.V., Nikitin, Yu.J., and Petasyuk, G.A., Uniformity of Synthetic Diamond Powdersand Criteria for Its Quantitative Evaluation, Sverkhtverdye Materialy, 1999, No. 5 [J. Superhar Mater. 1999, Vol. 21 (5), pp. 63-69].

46. Petasyuk G. A. System and criterial method of the identification and quantitative estimation of the geometrical shape of the abrasive powder grains projection // Powder Technology. – 2014. – 264. – P. 78-85.

47. Kostyuk, A.I., Adaptability of diamond abrasive tool to the dynamic state of the machine/ workpiece/tool system, in: Advances in the Theory and Practice of Development and Applications of Synthetic Superhard Materials in National Economy. Section 3: Synthetic Superhard Materials in Metal Working, pp. 90-91 [in Russian], UkrNIINTI, Kiev, 1977.

48. Dudukalov, Yu.V., and Rab, A.F. Statistical characteristics of the macroprofile of a working surface of an abrasive tool, Rezanie i instrument v tekhnologicheskikh systemakh (Cutting and Cutting Tools in Technological Systems), 1990, issue 44, pp. 34-41.

49. Linenko-Melnikov, Yu.P., Method of investigation of kinetics of the tool-workpiece contact interaction in grinding, Sverkhtverdye Materialy, 1991, No. 6, pp. 40-43.

50. Yakimov, A.V., Parshakov, A.N., Svirshchev, V.I., and Larshin, V.P., Upravlenie Protsesom Shlifovania (Control of Grinding Process) [in Russian], Kiev: Tekhnika, 1983.

51. Metzger, J.L., Scatter in grinding tests – curse or blessing?, Industrial Diamond Review, 1988, vol. 42, No. 529, pp. 270-277.

52. Lavrinenko V.I, and Leshchuk, I.V., Diamond wheels with metal-bonded alternating sintered layer, in: Abstracts of Reports Presented at the 2nd “Nomatekh” Conference on Materials, Technology, Tools, pp. 40-41 [in Russian], Minsk, 1996.

53. Samotugin, S.S., Lavrinenko, V.I., Samotugina, Yu.S., and Kudinova, E.V., The Influence ofPlasma Surface Modification Process on the Structure and Phase Composition of CuttingTool Hardmetals, Sverkhtverdye Materialy, 2011, No. 3, pp. 74-81 [J. Superhard Mater., 2011, No. 3, pp. 200-207].

54. Vereshchaka, A.A., Vereshchaka, A.S., Batako, A.D., Hoszhaev, O.H. Development and research of nanostructured multilayer composite coatings for hard alloys with enhanced technological scope of application, in Mat. XXIII Inter. Tech. Science Sem. “High Technologies: Tendencies of Development”, Kharkov: NTU KhPI, 2015, pp. 30-36.

55. Kaidalov, A.A., Plasma treatment of cutting and abrasive tools to improve their wear resistance,Instrument. Svit, 2001, No. 12, pp. 31-33.

56. Boguslayev, A.V., Characterization and application of thermal spray coating on aircraft engine parts and machinery components, Suchasne Mashinobud., 2000, nos. 3-4, pp. 28-33.

57. Rozenberg, O.A., Tsarenko, I.V., Tsekhanov, Yu.A., On performance of detonation-carbidecoated deformation broaches, in Povyshenie effektivnosti protyagivaniya (kachestvo obrabotki), Sb. nauchn. tr. (Improving Efficiency of Broaching (Machining Quality). Collected Research Papers), Riga: 1990, pp. 92-102.

58. Garanin, V.M., Ivanenko, A.A., and Klimenko, S.A., Coating application by detonation. New potential in reconditioning of parts, Suchasne Mashinobud., 1999, No. 2, pp. 96-99.

59. Tabakov, V.P., Mechanisms of hardening of a wear resistant coating material and processes for their implementation, in Grabchenko, A.I. Ed., Sovremennye tekhnologii v mashinostroenii, Sb.nauchn. satei ( Modern Processes in Machine Building. Collected Research Papers), Kharkiv: NTU KhPI, 2007, Volume 2, pp. 233-247.

60. Belous, V.A., Ion Plasma Surface Treatment of Structural Materials, Oborud. Instrum. Profess., 2005, No. 12, pp. 12-16.

61. Akifyev, V.A., Polunina, O.V., and Solopov, A.V., Nanostructured droplet-free coatings for extending service life of cutting tools and dies, in Effectivnost’ realizatsii nauchnogo, resursnogo i promyshlennogo potentsiala v sovremennykh usloviyakh. Materialy VII Promyshl. konf. s mezdunar. uchastiyem (Efficiancy of Fulfillement of Scientific, Resource and Industrial Potential under Present-Day Conditions. Proc. VII Industrial Conference with International attendance), Slavskoye, the Carpathians, 12-16 February 2007, Kiev: UITs NTT, 2007, pp. 349-351.

62. Gabler J., Pleger S., Schafer L., CVD diamond layers with a controlled roughness enable highprecition and micro grinding tools, in 2 nd Int. Industrial Diamond Conference, Rome, Italy, 19-20 April, 2007,

63. Zhang Yu, Yasuhiro Tani, Kawahata Yuji, and Kirino Okiharu, Proposal of Partially Ni-coatedDiamond Abrasives for Improving Grindabilities of Diamond Tools, in The 6th International Conference of Asian Society for Precision Engineering and Nanotechnology (ASPEN2015) 15- 20 August, 2015, Harbin, China.

64. Kostyuk, G.I., and Kurinnyi, A.N., A comparison of efficiency of 0.8ZRN + 0.2HFN coating on carbide cutting inserts made by Sandvik Koromant, USSR and Russian companies, in Grabchenko, A.I., Sovremennye technologii v mashinostroenii, Sb. nauchn. statei (Modern Processes in Machine Building. Collected Research Papers), Kharkiv: NTU KhPI, 2007, Volume 2, pp. 304-316.

65. Dabizha, E.V., Novikov, N.V., Bondar, I.V., et al., Development of modern vacuum coating processes, in Sintez, specanie i svoistva sverkhtverdykh materialov. Sb. nauchn. tr. (Synthesis, sintering, and Properties of Superhard Materials. Collected Research Papers), Kiev, ISM NANU, 2005, pp. 95-107

66. Sheiko, M.N., Matskevich, V.P., Nemets, V.M., and Skok, V.N., Evolution of working surface of diamond sticks in dressing, in Suchasni proctsesy mekhanichnoi obrobky instrumentamy z NTM ta yakist detalei mashin. Zb. nauk. prats’ (Modern Machining Processes Using Tools of SuperhardMaterials, and Surface Quality of Engineering Components. Collected Research Papers), Kiev, INM NAN Ukrainy, 2006, pp. 118-125.

67. Latyshev, V.N., and Naumov, A.G., On the effectiveness of using oxygen in the process of cutting, in Rezanie i instrument v tekhnologicheskikh systemakh (Cutting and Cutting Tools in Technological Systems), 2001, issue 60, pp. 121-127.

 68. Klimenko, S.A., Manokhin, A.S., and Kopeikina, M.Yu., The state of surface layer of cuttingtools of cBN-based polycrystalline superhard material in turning hardened steel, in Rezanie I instrument v tekhnologicheskikh systemakh (Cutting and Cutting Tools in Technological Systems), 2015, issue 85, pp. 119-125.

69. Korchak, S.N., and Shamin, V.Yu., Physical-chemical action of a coolant on removal rate ingrinding, in Voprosy teorii deistviya smazochno-okhlazhdayushcikh tekhnologicheskikh sredstv vprotsessakh obrabotki metallov rezaniem: Sb. 2 (The Issues of the Theory of Action of Cutting Fluids in the Metal Cutting Processes. Collected Papers), Gorky: GPI, 1975, pp. 50-53.

70. Kunio Uehara, Shinji Kumagai, Mitsuru Sakurai, Hideo Takeshita, Effect of solid lubrications in gigh speed intermittent metal cutting, in Proc. Intl. Conf. Prod. Eng., Tokyo, 1974, Part I. – Tokyo: J. Soc. Prec. Eng., 1974, pp. 566-571.

71. Drozhin, V.I., Efficiency of machining plastics and mechanisms of physical phenomena in the cutting process, in Rezanie i instrument v tekhnologicheskikh systemakh (Cutting and Cutting Tools in Technological Systems), 1996, issue 50, pp. 47-51.

72. Amosov, M.I., and Zolotarev, G.B., The influence of oxidation process on the friction coefficient of copper, Izv. VUZov. Mashinostroenie, 1974, No. 10, pp. 32-35.

73. Shepelev, A.A., Lavrinenko, V.I., and Solod, V.Yu., Special features of frictional contact between the superabrasive wheel bond and the workpiece materias, Sverkhtverdye Materialy, 1995, No. 5, pp. 26-29 [J. Superhard Mater., 1995, No. 5].

74. Fadeyev, G.N., Pyataya vertical’: elementy V gruppy periodicheskoi sistemy Mendeleyeva (The Fifth Vertical: Elements of group V of the Mendeleev Periodic Table), Moscow: Prosveshchenie, 1985.

75. Chmir, M.Ya., Troitskii, N.A. Interrelation between Diamond Electrochemical Grinding Process Parameters, Machine Characteristics, and Machining Conditions, in Elektro khi micheskie i elektrofizicheskie metody obrabotki materialov, Sb. Nauchn. Tr. (Electrochemical and electrophysical Machining Methods. Collection of Articles), Tula: TulPI, 1990, pp. 80-92.

76. Tsypkin, R.Z., Kangun, V.R., Belov, V.I., et al., Almaznoe shlifovanie nemetallicheskikhmaterialov. Obzor (Diamond Grinding of Nonmetallic Materials. A Review), Moscow: NIImash, 1978

77. Shul’man, P.A., Semenov, L.N., and Kolesnichenko, Yu.N., On the Influence of Machine ToolDynamics on the Nature of Diamond Grinding Process, in Voprosy teorii i praktiki rezaniyaalmaznmi instrumentami (Theoretical and Practical Issues of Cutting with Diamond Tools), Kiev: UkrNIINTI, 1968. pp. 33-35.

78. Sverkhtverdye materially. Poluchenie i primenenie. 6 tomov. (Superhard Materials. Productionand Applications, in 6 Volumes). Tom 6. Almaznj-abrazivnyi instrument v tekhnologiyakh mekhanoobrabotki (Volume 6. Diamond Abrasive Tools in Machining Processes), Novikov, N.V., (Ed.) Kiev: ISM im. V.N. Bakulya, IPTs ALKON NANU, 2007.

79. Novikov, F.V. and Yakimov, A.V. (Eds.) Fiziko-matematicheskaya teoriya processov obrabotki materialov i tekhnologiya mashinostroeniya (Physico-mathematical Theory of MachiningProcesses and Manufacturing Engineering), Vol. 10. (Kontseptsiya razvitiya tekhnologii mashino stroeniya (Manufacturing Engineering Development Concept), Odessa: ONPU, 2005.

80. Lavrinenko, V.I., Pasichnyi, O.O., and Sytnik, B.V., On Grinding Using a Sintered CompositeMaterial with Ordered Diamond Grits, in Effektivnost’ realizatsii nauchnogo, resursnogo I promychlennogo potentsiala v sovremennykh usloviyakh. Materialy V Prom. konf. s mezhdynarodnym uchastiem (Efficiency of Implementation of Scientific, Resources-Related, and Industrial Potential under Present-Day Conditions), Slavskoe, the Carpathians, February, 12- 16, 2007, Kiev: UITs NTT, 2007, pp. 440 – 442.

81. Biderman, V.L., Mechanics of Thin-Walled Structures [in Russian], Moscow: Mashinostroyenie, 1977.

82. Petasyuk, G.A. and Lavrinenko, V.I., Axial Rigidity of Straight Superabrasive Grinding Wheels, Sverkhtverdye Materialy, 1993, No. 6 pp. 47-52 [J. Superhard Mater., 1993, No. 6].

83. Golovchan, V.T., Petasyuk, G.A., and Zaporozhkii, V.P., Experimental and calculation procedure of determining diamond cutoff wheel tension, Sverkhtverdye Materialy, 1986, No. 6, pp. 33-36.

84. Orlov, P.I., Foundation of Design [in Russian], Vol. 1, Moscow: Mashinostroyenie, 1988.

85. Zienkievicz, O., The Finite Element Method in Engineering Science [Russian translation], Mir: Moscow, 1975.

86. Petasyuk, O.U., On bonded diamond grit behavior under load in Superhard Materials: Research and Application [in Russian], pp. 106-110, ISM, Kiev, 1981.

87. Petasyuk, O.U., On automatic generation of input data in finite element method when solvingthree-dimensional problems of strength evaluation of structural components [in Russian], Deposited in VINITI 22 May 1987, No. 3682-B87, Kiev, 1987.

88. Petasyuk, G.A., Lavrinenko, V.I., and Petasyuk, O.U., Axial Rigidity of Standard 12A2-45° Superabrasive Wheels, Sverkhtverdye Materialy, 1994, No. 4, pp. 28-31 [J. Superhard Mater., 1994, No. 4].

89. Mazur, N.P. (Ed.), Vnukov, Yu.N., Grabchenko, A.I. (Ed.), et al., Osnovy teoriirezaniyamaterialov: uchebnik (dlea vyssh. uchebn. Zavedenii) (Fundamentals of the Theory of Cutting. Tutorial (for Higher Educational Institutions)), Second Edition, Kharkov: NTU “KhPI”, 2013

90. Novikov, F.V., and Ryabenkov, I.O., Teoretychni osnovy mekhanichnoi obrobky vysokotochnykhdetalei (Theoretical Background of Machining of High-Precision Parts), Kharkov: KhNEU, 2013.

91. Sukhobrus, A.A., A study of force and energy characteristics of the process of grinding of brittle materials, Sverkhtverdye Materialy, 1993, No. 1, pp. 64-69 [J. Superhard Mater., 1993, No. 1].

92. Sagarda, A.A., The mechanism of microcutting with a single diamond grit, Sinteticheskie Almazy, 1969, issue 2, pp. 9-14.

93. Sagarda, A.A., Special features of diamond friction in contact with metals, Sverkhtverdye Materialy, 1979, No. 3, pp. 23-27 [J. Superhard Mater., 1979, No. 3].

94. Semko, M.F., Special Features of the Process of Cutting with Diamond and Ceramic Tools and of Machining of Plastics, Extended Abstract of Dr. Sci. (Eng.) Dissertation, Kiev, KPI, 1968.

95. Kalafatova, L.O., and Poezd, S.A., A study of fracture of brittle nonmetallic materials in cutting, Naukovi pratsi Donets’kogo natsional’nogo tekhnichno go universutety. Seriya “Mashynobuduvannua i mashynoznavstvo” (Trans. Donetsk National Technical University. Series “Machine Building and Machine Science”), Donetsk: DonNTU, 2005, issue 92.

96. Starkov, V.K., Physical mechanism of material removal an grinding, in Grabchenko, A.I. (Ed.), Sovremennye tekhnologii v mashinostroenii. K yubileyu F.Ya. Yakubova. Sb. nauch. Statei (Modern Technologies in Machine Building. For F.Ya. Yakubov’s Jubilee. Collected Research Papers), Kharkov: NTU “KhPI”, 2007, pp. 156-171.

97. Tanovych, L., Investigation of the process of grinding of Silinit-R ceramics, Visnyk ZhDTU. Tekhn. Nauky, 2001, pp. 280-282.

98. Khvorostetskii, V.I., A study of the process of diamond centerless OD grinding of hardmetal workpieces, Extented Abstract of Cand. Sci. (Eng.) Dissernation, Kiev: KPI, 1973.

99. Zubkova, M.Ya., Cutting forces in grinding of high-speed steels with Elbor (cBN) wheels, Rezanie i instrument v tekhnologicheskikh systemakh (Cutting and Cutting Tools in Technological Systems), 1971, issue 3, pp. 80-84.

100. Tagiev, E.A., and Gadzhiev, A.M., A study of performance of Kubonit (cBN) wheels in deep grinding of HSS tools, Abrazivy, 1978, No. 12, pp. 2-5.

101. Zvonovskii, V.V., Impoving efficiency of deep surface grinding by specifying rational working cycles and controlling the grinding speed, Extented Abstract of Cand. Sci. (Eng.) Dissernation, Leningrad: LPI, 1987.

102. Rabinovich, E.S., Ositinskaya, T.D., Miklushis, V.V., and Samsonyuk, I.A., Thermal properties of rubber compounds for diamond abrasive tools, Sverkhtverdye Materialy, 1985, No. 6,pp. 16-19 [J. Superhard Mater., 1985, No. 6].

103. Malyshev, V.I., and Yanyuskin, Yu.M., Contact temperatures in diamond dressing of grinding wheels, Sverkhtverdye Materialy, 1986, No. 5, pp. 48-54 [J. Superhard Mater., 1986, No. 5].

104. Chepovetskii, I.Kh., and Barabolya, A.V. Forces and temperatures in antifriction plateau honing, Sverkhtverdye Materialy, 1986, No. 1, pp. 57-61 [J. Superhard Mater., 1986, No. 1].

105. Yakubovich, Ch. F., The influence of coolants on hardening of the to contact surfaces, in High Technologies in Mechanical Engineering. Collected Papers [in Russian], issue 1(4), pp. 295- 297, NTU “KhPI”, Kharkiv, 2001.

106. Bakul V.N. (Ed.), Ginzburg, B.I., Mishnayevskiy, L.L., et al., Synthetic Diamonds in Machine Building [in Russian], Kiev: Naukova Dumka, 1976.

107. Shmatov, V.E., A Study of Face Grinding of High-Speed Steels with Synthetic Diamond and Kubonit (Cubic Boron Nitride) Wheels in Various Media. Cand. Sci. (Eng.) Thesis. Author’s Abstract [in Russian], GPI, Gorki, 1970.

108. Klushin, M.I., Lubricating/cooling/detergent action of an ambient medium in tool grinding with synthetic diamond wheels, in: Synthetic Diamond as a Key to Technological Advance. Part 2 [in Russian], pp. 48-54, Naukova Dumka, Kiev, 1977.

109. Bersegyants, R.O., and Daen, E.D., On assessment of cooling action of liquids and gases, in: The Issues of Theoretical Background of the Action of Lubricating/Cooling Agents in Metal Cutting Processes [in Russian], pp. 21-26, GPI, Gorki, 1975.

110. Entelis, S.G., and Berliner, E.M. (Eds.), Smazochno-okhlazhdayushchie sredstva dlya obrabotki metallov rezaniem. Spravochnik (Lubricating/Cooling Fluids for Metal Cutting Operations. Handbook [in Russian], Moscow: Mashinostroenie, 1986.

111. Penker, H.J., Liquidi refrige e da taglio per lavori di rettifica, Rass. Mess., 1977, vol. 11, No. 2, p. 41.

112. Muller, Ju., Profil festlegen beurteilungskriferien fur die quealitat wassermischbarer kuhlschmierstoffe, Maschinenmarkt, vol. 93, No. 31, pp. 44-45, 1987.

113. Lavrinenko V.I., Solod V.J. (2016), Instrumemty iz sverhtverdyh materialov v tehnologijah abrazivnoj i fiziko-tehnicheskoj obrabotki, (Tools of Superhard Materials in Abrasive and Physicotechnical Machining Processes) Kamianske: DSTU, 2016.

114. Shilo, A.E., and Pashchenko, E.A., Matricnye oksidnye polimernye materialy (Matrix-type Oxide-Polymer Materials) [in Russian], Kiev: Naukova Dumka, 1989.

115. Zheng, H.W., Cai, G.Q., Wang, S.L., and Yuan, S.X., An experimental study on mechanism of cermet grinding, Annals CIRP, 1989, vol. 38, No. 1, pp. 335-338.

116. Below, V.S., Poristue materialy v mashinostroenii (Porous Materials in Mechanical Engineering) [in Russian], Moscow: Mashinostroenie, 1981.

117. Deriagin, B.V., Churaev, N.V., Ovcharenko, F.D. at al., Voda d dispersnoi systemu (Water in disperse systems) [in Russian], Moscow: Chimia, 1989.

118. Kozlovskiy N.S., and Vinogradov A.N., Principu standartizatsii, dopuski i tekhnicheskie izmerenia (The Principals of Standardization, the Tolerances, Fits, and Technical Measurements) [in Russian], Moscow: Mashinostroenie, 1979.

119. Ryzhov E.V., Sagarda A.A., Ilyitskiy V.N., and Chepovetskiy I.Kh., Kachestvo obrabotannoi poverchnosti pri almazno-abrazivnoi obrabotke (Workpiece Surface Quality in Diamond AbrasiveMachining) [in Russian], Kiev: Naukova Dumka, 1979.

120. Lukyanjv V.S., and Rudzit Ya.A., Parametru sherohovatosti povekhnosti (Surface Roughness Parameters) [in Russian], Moscow: Izdatelstvo Standartov, 1979.

121. Eksler L.I., Experimental relationships for height and spacing parameters of surface roughness, in: Metrological and Technological Investigations of Surface Quality [in Russian], pp. 37-42, Zinatne, Riga, 1976.

122. Szczakiel P., Okresiebie wspokzaleznosci wybranych parametrow chropowatosci powierzchni obrabianych elektroerozyjnie, Mechanik, vol. 60, No. 9, pp. 437-439, 1987.

123. Ryzhov E.V., and Korzh N.Ya., The influence of technological factors on the workpiece surface roughness parameters in superabrasive grinding, in: Microgeometry and Performance Characteristics of Machines [in Russian], pp. 5-10, Zinatne, Riga, 1983.

124. Kombalov V.S., Vlijanie sherohovatosti poverkhnosti tverdogo tela na trenie i iznos (The Effect of Surface Roughness of Solids on Friction and Wear) [in Russian], Moscow: Nauka, 1974.

125. Loladze, T.N., Prochnost’ i Iznosostoikost’ rezhushchego instrumenta (Strength and Wear Resistance of Cutting Tools), Moscow: Mashonostroenie, 1982.

126. Lisovskii, A.F., Formation of the gradient structure in sintered hard alloys (Review), Sverkhtverdye Materialy, 2010, No. 4, pp. 36-53 [J. Superhard Mater., 2010, No. 4, pp. 250-262].

127. Vereshchaka, A.S., Rabotosposobnost’ rezhushchego instrumenta s iznosostoikimi pokrytiyami (Per formance of Cutting Tools with Wear-Resistant Coating), Moscow: Mashonostroenie, 1993.

128. Yares’ko, S.I., Improving performance of cemented carbide tools by laser treatment, in Fiz. Khim. Obrab. Mater., 2003, No. 5, pp. 18-22.

129. Petrenko, P.V., Grabovskii, Yu.E., Gritskevich, A.L., Kulish, N.P., and Mel’nikova, N.A., Structural-phase trasformations in WC-Co cemented carbides during low-flux electron beam irradiation, in Fiz. Khim. Obrab. Mater., 2003, No. 3, pp. 29-39.

130. Korshunov, A.B., Mirkin, L.I., Myakotin, E.A., Shesterykov, S.A., and Shemayev, B.V., Ionizing radiation hardening of cobalt-binder hardmetal inserts, in Fiz. Khim. Obrab. Mater.,1997, No. 3, pp. 5-9.

131. Lisovskii, A.F., TMM process increases service life of sintered hardmetal products, in Instrum. Svit, 2005, No. 2, pp. 8-9.

132. Samotugin, S.S., and Leshchinskii, L.K., Plasmennoe uprochnenie instrumental’nych materialov (Plasma Hardening of Tool Materials), Donetsk: Novyi Mir, 2002.

133. Dub, S.N., Reliability of ceramics fracture toughness measurements by indentation, in Brandt, R.C., Hasselman, D.P.H., Munz, D., Sakai, M., and Shevchenko, V.Ya. (Eds.), FractureMechanics of Ceramics, New York: Plenum Press, 1992, Vol. 10, pp. 109-118.

134. Chernyavskii, K.S., Tumanov, V.I., Konyukhova, L.A., et al., Crack propagation in WC-CO hardmetals in various loading modes, in Issledovanie i razrabotka tverdykh splavov. Sb. (Research and Development of Hardmetals. Collected Research Papers), Moscow, 1988, pp. 24-32.

135. Loshak, M.G., Prochnost’ i dolgovechnost’ tverdykh splavov (Strengh and Durability of Hardmetals), Kiev: Naukova Dumka, 1984.

136. Roebuk, B. And Almond, E.A., Deformation and fracture processes and the physical metallurgy of WC-Co Hard Metals, Int. Metals Rev., 1988, No. 2, pp. 90-110.

137. Hellman, K., Introduction to Fracture Mechanics, New York: McGraw-Hill, 1984.

138. Lisovskii, A.F., The formation of mesostructures in sintered hardmetals, Poroshk. Metall., 2001, No. 1/2, pp. 91-99.

139. Kremnev, L.S., Fracture behavior of cutting-tool materials, Metallov. Term. Obrab. Met., 1994, No. 4, pp. 17-22.

140. Devin, L.N. and Vaisband, M.D., Strength of tool materials under single impact loading, Probl. Prochn., 1992, No. 7, pp. 33-40.

141. Samotugin, S.S., Lavrinenko, V.I., Kudinova, E.V., and Samotugina, Yu.S. The study of fracture toughness and failure mechanisms of cutting-tool hardmetals with plasma-modified surface, Sverkhtverdye Materialy, 2013, No. 4, pp. 63-73 [J. Superhard Mater., 2013, No. 4, pp. 242-250].

142. Zalkin, V.M., Some aspects of the theory of eutectic alloys in the light of new experimental findings, Metallov. Term. Obrab. Met., 1993, No. 11, pp. 2-7.

143. Vasil’ev, D.M., Difraksionnye metody issledovaniya struktury (Diffraction Methods for Structure Investigations), Moscow: Metalllurgiya, 1997.

144. Kaliya, M.A., and Loshak, M.G., On the mechanism of hardening in hardmetals under heat treatment, Poroshk. Metall., 1991, No. 1, pp. 94-96.

145. Gureev, D.M., Latetin, A.N., Chulkin, A.P., et al., The influence of pulsed laser radiation on the state of cobalt interlayer in hardmetals, Fiz. Khim. Obrab. Mater., 1990, No. 1, pp. 51-54.

146. Aleksandrova, L.I., Loshak, M.G., and Gorbacheva, T.B., X-ray study of heat-treated WC-Co hardmetals, Poroshk. Metall., 1986, No. 5, pp. 93-98.

147. Loshak, M.G., Aleksandrova, L.I., and Gorodysskii, N.I., The use of acoustic emission meethod to study the mechanism of hardening of cemented carbides in heat treatment, Poroshk. Metall., 1990, No. 5, pp. 72-76.

148. Koval’chenko, M.S., Paustovskii, A.V., and Minyakov, V.N., Structural changes in the surface of titanium-carbide and tungsten-carbide hardmetals with nickel binder under the action oflaser emission, Poroshk. Metall., 1995, No. 9/10, pp. 67-71.

149. Tugoplavkie materially v mashinostroenii. Spravochnik (Refractory Materials in Machine Building, Handbook), Moscow: Mashinostroenie, 1967.

150. Tikhonov, A.S., Gerasimov, A.P., and Prokhorova, I.I., Primenenie effecta pamyati formy vsovremennom mashinostroenii (The Application of the Shape Memory Effect in Modern Machine Building), Moscow: Mashinostroenie, 1981.

151. Malkin, S. And Joseph, N., Minimum energy in abrasive processes, Wear, 1975, vol. 32, pp. 15-23.

152. Shein, A.V., An Investigation of the Process of Flat Face Diamond Grinding of Cutting-Tool Materials. Extended Abstract of Cand. Sci. (Eng) Dissertation, Kuybyshev: KPI, 1971.