Hot turning of a difficult-to-machine steel (sae xev-f) aided by infrared radiation

A possible way for increasing the cutting tool life can be achieved by heating the workpiece in order to diminish the shear stress of material and thus decrease the machining forces. In this study, quartz electrical resistances were set around the workpiece for heating it during the turning. In the...

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Veröffentlicht in:International journal of advanced manufacturing technology 2014-07, Vol.73 (5-8), p.887-898
Hauptverfasser: Sanchez, Luiz E. A., Mello, Hamilton J., Neto, Rubens R. Ingraci, Davim, João P.
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container_issue 5-8
container_start_page 887
container_title International journal of advanced manufacturing technology
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creator Sanchez, Luiz E. A.
Mello, Hamilton J.
Neto, Rubens R. Ingraci
Davim, João P.
description A possible way for increasing the cutting tool life can be achieved by heating the workpiece in order to diminish the shear stress of material and thus decrease the machining forces. In this study, quartz electrical resistances were set around the workpiece for heating it during the turning. In the tests, heat-resistant austenitic alloy steel was used, hardenable by precipitation, mainly used in combustion engine exhaustion valves, among other special applications for industry. The results showed that in the hot machining the cutting tool life can be increased by 340 % for the highest cutting speed tested and had a reduction of 205 % on workpiece surface roughness, accompanied by a force decrease in relation to conventional turning. In addition, the chips formed in hot turning exhibited a stronger tendency to continuous chip formation indicating less energy spent in material removal process. Microhardness tests performed in the workpieces subsurface layers at 5 μm depth revealed slightly higher values in the hot machining than in conventional, showing a tendency toward the formation of compressive residual stress into plastically deformed layer. The hot turning also showed better performance than machining using cutting fluid. Since it is possible to avoid the use of cutting fluid, this machining method can be considered better for the environment and for the human health.
doi_str_mv 10.1007/s00170-014-5879-3
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subjects Austenitic stainless steels
CAE) and Design
Chip formation
Compressive properties
Computer-Aided Engineering (CAD
Cutting fluids
Cutting speed
Cutting tools
Deformation
Engineering
Exhaustion
Hardenability
Heat resistant steels
Heating
Hot machining
Industrial and Production Engineering
Infrared radiation
Mechanical Engineering
Media Management
Microhardness
Original Article
Residual stress
Shear stress
Surface roughness
Tool life
Turning (machining)
Workpieces
title Hot turning of a difficult-to-machine steel (sae xev-f) aided by infrared radiation
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