Thermal features of plasma electrolytic heating of titanium

•New model for calculating of anode heating temperature is developed.•Reduction of sample thermal conductivity at anode heating of the leads to its temperature rise.•Anode heating current for titanium sample is less than that for steel one ceteris paribus.•The lesser thermal conductivity of sample t...

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Veröffentlicht in:International journal of heat and mass transfer 2017-04, Vol.107, p.1104-1109
Hauptverfasser: Shadrin, S.Yu, Zhirov, A.V., Belkin, P.N.
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container_title International journal of heat and mass transfer
container_volume 107
creator Shadrin, S.Yu
Zhirov, A.V.
Belkin, P.N.
description •New model for calculating of anode heating temperature is developed.•Reduction of sample thermal conductivity at anode heating of the leads to its temperature rise.•Anode heating current for titanium sample is less than that for steel one ceteris paribus.•The lesser thermal conductivity of sample the thinner its vapour-gas envelope. The study considers heat exchange relations in terms of anode plasma-electrolytic treatment of titanium. The density of heat fluxes from vapour-gas envelope (VGE) to the anode-sample, electrolyte and atmosphere are experimentally determined. A model of heating temperature calculation considering heat transfer to the atmosphere along the cross-section of the workpiece is developed. Interrelations between envelope thickness and voltage as well as temperature-voltage characteristic (TVC) of the process are found. It is established that, other conditions being equal, anode heating of titanium is characterized by higher temperature at lower values of current and density of the heat flux from the vapor-gas envelope, compared with treatment of steel workpieces. The resulting dependences are confirmed by numerical evaluation with the use of the developed model and are explained by lower specific heat conductivity of titanium, contributing to a decrease of heat transfer from the heated part of the sample to the part protruding over electrolyte surface. The heat flux from the envelope to the electrolyte is found to be determined by power input in the system and independent of the anode material.
doi_str_mv 10.1016/j.ijheatmasstransfer.2016.11.019
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The study considers heat exchange relations in terms of anode plasma-electrolytic treatment of titanium. The density of heat fluxes from vapour-gas envelope (VGE) to the anode-sample, electrolyte and atmosphere are experimentally determined. A model of heating temperature calculation considering heat transfer to the atmosphere along the cross-section of the workpiece is developed. Interrelations between envelope thickness and voltage as well as temperature-voltage characteristic (TVC) of the process are found. It is established that, other conditions being equal, anode heating of titanium is characterized by higher temperature at lower values of current and density of the heat flux from the vapor-gas envelope, compared with treatment of steel workpieces. The resulting dependences are confirmed by numerical evaluation with the use of the developed model and are explained by lower specific heat conductivity of titanium, contributing to a decrease of heat transfer from the heated part of the sample to the part protruding over electrolyte surface. 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The resulting dependences are confirmed by numerical evaluation with the use of the developed model and are explained by lower specific heat conductivity of titanium, contributing to a decrease of heat transfer from the heated part of the sample to the part protruding over electrolyte surface. 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subjects Atmosphere
Electric potential
Electrolytes
Heat conductivity
Heat exchange
Heat flux
Heat transfer
Heating
Mathematical models
Plasma electrolysis
Temperature
Temperature calculating models
Thermal conductivity
Titanium
Workpieces
title Thermal features of plasma electrolytic heating of titanium
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