Article Review Procedure
Academic Areas and Subjects
Applied Aspects of Information Technology
Search by article
Vol. 4 № 1
Vol. 3 № 1
Vol. 3 № 2
Vol. 3 № 3
Vol. 3 № 4
Vol. 2 № 1
Vol. 2 № 2
Vol. 2 № 3
Vol. 2 № 4
Vol. 1 № 1
18 Feb 2021
26 Feb 2020
Informatics, Culture and Technology
20 May 2019
Informatics, Culture and Technology
INTERMITTENT GRINDING TEMPERATURE MODELING FOR GRINDING SYSTEM STATE MONITORING
A dry and wet intermittent grinding temperature mathematical model for the thermal macro- or micro-cycle was developed and studied. The heating stage corresponds to the wheel cutting segment passage time through the every contact zone point. The cooling stage corresponds to the passage time of the grinding wheel groove (or pore) through the point mentioned. The dry intermittent grinding temperature field is formed by temperature field superposition during the indicated both heating and cooling cycle stages under the action of heat flux on each point of the surface being ground. While during wet intermittent grinding with grinding fluid through the grooves (or pores) of the intermittent grinding wheel, the temperature field formed at the heating stage is the initial condition for determining the temperature field at the forced cooling stage. Based on the obtained model of the intermittent grinding temperature field the geometrical parameters of the discontinuous (slotted, segmented, high porous) grinding wheel are found and determined for the grinding with intermittent grinding wheel as follows: the number of cutting sections on the wheel and the duty factor of the period of heat flux pulses. The wet intermittent grinding temperature field is also formed by summing (stitching) the temperature fields. However, the heat exchange of the surface being ground with the cooling medium, which periodically acts on this surface during the cooling stage, is taken into account in each macro- or micro-cycle of heat flux in intermittent grinding. The presented article is the result of current work carried out as part of the scientific school of Professor A.V. Yakimov who was the founder of intermittent grinding technology and automation of grinding operations.
( email@example.com )
Natalia V. Lishchenko
, Doctor of Technical Sciences, Associate Professor, Department of Physics and Materials Science
( firstname.lastname@example.org )
Vasily Petrovich Larshin
, Doctor of Technical Sciences, Professor
( email@example.com )
dry and wet grinding; slotted and segmented wheels; high porous wheels; cutting segment; non-cutting area
1. Lee, K., Wong, P. & Zhang, J. (2000). “Study on the Grinding of Advanced Ceramics with Slotted Diamond Wheels”, Journal of Materials Processing Technology, 100(1), рр. 230-235.
2. Fang, C. & Xu, X. (2014). “Analysis of Temperature Distributions in Surface Grinding with Intermittent wheels”, Int J Adv Manuf Technol, 71, pp. 23- 31.
3. Taghi, T. & Bahman, A. (2010). “Intermittent Grinding of Advanced Ceramic with the T-Tool Grinding Wheel”, Advanced Materials Research (126-128), pp. 615-620.
4. Zeng, W. & Xu, X. (2004). “Analytical study of temperatures in sawing with segmented blades”, Key Engineering Materials, pp. 259-260.
5. Zheng, H. W. & Gao, Н. (1994). “A General Thermal Model for Grinding with Slotted or Segmented Wheel”, CIRP Annals – Manufacturing Technology, 43(1), pp. 287-290.
6. Bogutsky, V., Novoselov, Y. & Shron, L. (2018). “Calculating the Profile of Intermittent Grinding Wheel for the Sharpening Teeth of the Broach, MATEC Web of Conferences, 224(11): 01003.
7. Lishchenko, N. & Larshin, V. (2012). “Optimization of Discontinued Grinding Wheel Geometrical Parameters”, Journal of Mechanical Engineering, the National Technical University of Ukraine “Kyiv Polytechnic Institute, No. 65, pp. 110-117 (In Russian).
8. Kwak, J. & Ha, M-K. (2001). “Force Modeling and Machining Characteristics of the Intermittent Grinding Wheels”, KSME International Journal, 15, pp. 351-356.
9. Pérez, J., Hoyas, S., Skuratov, D., Ratis, Y., Selezneva, I, Fernándezde Córdoba & Urchueguía, J. (2008). “Heat Transfer Analysis of Intermittent Grinding Processes”, International Journal of Heat and Mass Transfer, 51(15-16), pp. 4132-4138.
10. Aurich, J. & Kirsch, B. (2013). “Improved Coolant Supply through Slotted Grinding Wheel”, CIRP Annals – Manufacturing Technology, 62(1), pp. 363-366.
11. Jackson, М. (2008). “Design of Slotted Grinding Wheels”, International Journal of Nanoparticles, 1(4), pp. 334-352.
12. Li, Zheng, Ding, W., Ma, C-Y. & Xu, J-H. (2015). “Grinding Temperature and Wheel Wear of Porous Metal-bonded Cubic Boron Nitride Superabrasive Wheels in High-efficiency Deep Grinding”, Proceedings of the Institution of Mechanical Engineers. Journal of Engineering Manufacture, 231, 11, pp. 1961-1971.
13. Neslusan, M. (2009). “Grinding of NI-based Alloys with Grinding Wheels of High Porosity”, Advances in Production Engineering and Management, 4 (1-2), pp. 23-36.
14. Zhenzhen, C., Jiuhua, X., Wenfeng, D. & Changyu, M. (2014). “Grinding Performance Evaluation of Porous Composite-bonded CBN Wheels for Inconel 718 for Inconel 718”, Accepted Manuscript.
15. Lishchenko, N. & Larshin, V. (2019). “Profile Gear Grinding Temperature Determination”, Proceedings of the 4th International Conference on Industrial Engineering ICIE 2018. Lecture Notes in Mechanical Engineering, pp. 1723-1730.
16. Lishchenko, N. & Larshin. V. (2020). “Temperature Field Analysis in Grinding”. Lecture Notes in Mechanical Engineering, pp. 199-208.
17. Lishchenko, N. & Larshin, V. (2020). “GearGrinding Temperature Modeling and Simulation”, Lecture Notes in Mechanical Engineering, pp. 289-297.
18. Carslaw, H. S. & Jaeger, J. C. (1959). “Conduction of Heat in Solids”, 2nd edn. Oxford University Press, Oxford.
19. Larshin, V. & Lishchenko, N. (2019) “Grinding Temperature Model Simplification for the Operation Information Support System”, Scientific Journal Herald of Advanced Information Technology, Odessa, Ukraine, Publ. Science and Technical, Vol. 2 № 3, pp. 197-205. DOI: 10.15276/hait.03.2019.3.
20. Lishchenko, N. & Larshin, V. (2019) “Temperature Models for Grinding System State Monitoring”, Applied Aspects of Information Technology, Odessa, Ukraine, Publ. Science and Technical, Vol. 2 № 3, pp. 216-229. DOI: 10.15276/aait.03.2019.4.
Received after revision 06.06. 2020
Accepted 12.06. 2020
Vol. 3 № 2, 2020
29 May 2021
Search by author
Information Systems and Technologies
1. Models and Methods of Information Technology
2. Design of Information Systems and Technologies
3. Mathematical Issues of Information Technologies
4. Innovative Technologies in Education, Culture and art
5. Game Technologies, Augmented and Virtual Reality
6. Theoretical and Applied Issues of Computer Science
7. Project, Program and Portfolio Management
Digital control of Technical and Social Systems
1. Adaptive and optimal Control Systems
2. Parametric and System Identification
3. Interconnected Systems and Systems with Distributed Parameter
4. Renewable Energy Systems
5. Machine Learning and Artificial Intelligence in General Technical Problems and Electromechanics
6. Management of Production and Power Plants
7. Control Systems for Robotic Systems and Complexes, Electric Vehicles
8. Diagnosis and Evaluation of Complex Systems
9. Simulation of Physical Objects and Processes
Sensor less Control Systems
Software Engineering and Systems Analysis
1. Methods and Means of Intellectual Information Processing
2. Recognition, Decision Making, Forecasting
3. Neural Network Technologies and Machine Learning Methods
4. Semantic Models. Natural Language Processing
5. Theoretical and Applied Issues of Software Engineering
6. Models and Methods of Software Quality Management
Computer Systems and Cybersecurity
1. Parallel and Distributed Information Processing
2. Internet of Things
3. Information Security and Cybersecurity
4. Computer Networks and Systems
5. Components of Robotic Systems
KarelWintersky ] [
[ © Odessa National Polytechnic University, 2018.]