DING Zishan,ZHOU Han,PAN Xixia,et al. Research on active control of grinding heat field distribution based on electromagnetic induction heating[J]. Journal of Mechanical Strength,2026,48(4):1-14.
DING Zishan,ZHOU Han,PAN Xixia,et al. Research on active control of grinding heat field distribution based on electromagnetic induction heating[J]. Journal of Mechanical Strength,2026,48(4):1-14. DOI: 10.16579/j.issn.1001.9669.2026.04.001.
Research on active control of grinding heat field distribution based on electromagnetic induction heating
To address the challenge of precisely controlling residual stress induced by the coupling of mechanical and thermal stresses during grinding of 17-4PH alloy steel
an electromagnetic induction heating-assisted grinding method was proposed
aiming to provide a reference for effective residual stress distribution control.
Methods
2
Firstly
based on the coupling effect of heat conduction and convection
an analytical method of implanted heat source is established to reveal the thermal field generation mechanism during induction heating. Secondly
through integral calculation of spatial magnetic field and workpiece heat flux
a numerical simulation model characterizing the dynamic action of the electromagnetic heat source is constructed to solve the electro-thermal coupling problem. Then
considering the skin effect and temperature-dependent material properties
an analytical model for rapid prediction of induction heating temperature field is developed. Finally
induction heating-assisted grinding experiments are conducted to verify the regulation effect of this process on residual stress.
Results
2
Test results show that the optimized induction heating process reduces the residual stress gradient in the ground surface layer by 40%
and the error between the temperature predicted by the analytical model and the experimental value is less than 16%. This method achieves active control of the grinding thermal field and provides a feasible technical approach for reducing surface thermal damage and improving residual stress distribution.
关键词
Keywords
references
JONES J , VAFADAR A , HASHEMI R . A review of the mechanical properties of 17-4PH stainless steel produced by bound powder extrusion [J]. Journal of Manufacturing and Materials Processing , 2023 , 7 ( 5 ): 162 .
KAGIMOTO H , MIYAGI D , TAKAHASHI N , et al . Effect of temperature dependence of magnetic properties on heating characteristics of induction heater [J]. IEEE Transactions on Magnetics , 2010 , 46 ( 8 ): 3018 - 3021 .
LUO Jiayuan , LI Xin , TAN Chao . Effect of welding residual stress on crack propagation and fatigue performance of high strength steel spot welding joint [J]. Journal of Mechanical Strength , 2024 , 46 ( 2 ): 439 - 445 . (In Chinese)
JIANG Xiaohui , CAI Yan , ZHOU Hong , et al . Prediction model of residual stress and optimization of process parameters in milling of Al7075-t6 thin-walled parts [J]. Journal of Mechanical Strength , 2022 , 44 ( 4 ): 875 - 884 . (In Chinese)
METAXAS A C . Conduction and induction heating [J]. IEE Review , 1991 , 37 ( 1 ): 32 .
RUDNEV V , LOVELESS D , COOK R L . Handbook of induction heating [M]. 2nd ed . Boca Raton : CRC Press , 2017 : 317 - 335 .
WANG Yujing , WU Guangliang . Prediction of heat treatment parameters and thermophysical properties of Q1100 high strength steel for construction machinery [J]. Heat Treatment of Metals , 2021 , 46 ( 6 ): 172 - 176 . (In Chinese)
SHEN Qingtong . Review and expectation of the development of induction heat treatment [J]. MW Metal Forming , 2019 ( 7 ): 3 - 7 . (In Chinese)
LI F , LI X K , ZHU T X , et al . Modeling and simulation of induction heating with magnetic flux concentrator [J]. Applied Mechanics and Materials , 2012 ,268/ 269 / 270 : 983 - 991 .
KIMA J S , KIM K S , OH Y J , et al . Finite element residual stress analysis of induction heating bended ferritic steel piping [J]. American Institute of Physics , 2014 , 1618 ( 1 ): 990 - 993 .
FAN W , TAN H , ZHANG F Y , et al . Effect of synchronous induction heating on residual stress for laser-based directed energy deposition of thin-walled structures [J]. Materials Today Communications , 2023 , 35 : 105702 .
WANG B , LIU H W , LI Q Q , et al . Effect of high frequency induction heating on residual stress of 2219 alloy FSW welded joints [J]. Electric Welding Machine , 2019 , 49 ( 5 ): 59 - 63 .
SHOKROLLAHI H , JANGHORBAN K . Soft magnetic composite materials (SMCs) [J]. Journal of Materials Processing Technology , 2007 , 189 ( 1/2/3 ): 1 - 12 .
NEMKOV V , GOLDSTEIN R , RUFFINI R . Magnetic flux controllers for induction heating applications [C]// Transactions of Materials and Heat Treatment . Proceedings of the 14th IFHTSE Congress , 2004 , 25 ( 5 ): 1 - 6 .
RUFFINI R S , RUFFINI R T , NEMKOV V S , et al . Advanced design of induction processes and work coils for heat treating and assembly in automotive industry [C]// SAE Technical Paper . Warrendale : SAE International , 1999 : 1999-01-3379 .
COUPARD D , PALIN-LUC T , BRISTIEL P , et al . Fatigue strength of induction-hardened and tempered steel with high residual stresses [J]. Materials Science and Engineering A , 2009 , 487 : 328 - 329 .
JIANG Xiaohui , YANG Ning , HE Shirong , et al . Research on dynamic characteristics during milling of thin-walled parts based on magneto rheological damping fixture [J]. Journal of Mechanical Strength , 2023 , 45 ( 5 ): 1081 - 1089 . (In Chinese)
RAPPAZ J , SWIERKOSZ M . Mathematical modeling and simulation of induction heating processes [J]. Applied Mathematics and Computer Science , 1996 , 6 ( 2 ): 207 - 221 .
ZABETT A , MOHAMADI AZGHANDI S H . Simulation of induction tempering process of carbon steel using finite element method [J]. Materials & Design , 2012 , 36 : 415 - 420 .
ISHIHARA S , GOSHIMA T , SHIBATA H , et al . Evaluation of the critical temperature difference for the heterogeneous material in the thermal-shock experiment [J]. Journal of Thermal Stresses and Related Topics , 2003 , 27 ( 2 ): 95 - 102 .
LI C , WANG K C , ZAKHAROV O , et al . Damage evolution mechanism and low-damage grinding technology of silicon carbide ceramics [J]. International Journal of Extreme Manufacturing , 2025 , 7 ( 2 ): 022015 .