vacuum heat treatment furnace, quenching, hardening, tempering, annealing for D3 XW-5 ED11 Die steel, mould steel

Product Description

   vacuum heat treatment furnace, quenching, hardening, tempering, annealing for D3 XW*5 ED*1 Die steel, mould steel

Vacuum Technology is the Basis for Process Innovation in Heat Treatment.

Heat Treatment is the process in which metallic/steel parts are exposed completely or partially to time-temperature sequences in order to change the mechanical and/or corrosion properties. There are numerous application areas, e.g.:

• Annealing • Hardening • Tempering • Aging • Case hardening

To achieve a higher strength of the material, better wear resistance or to improve the corrosion behaviour of the components.All of these processes need a temperature up to 1.**0 °C and higher as well as especially developed furnaces to achieve such ranges.

Vacuum Annealing

Annealing is one type of heat treatment comprising heating up to a specific temperature, holding and cooling down slowly. Such processes are generally used to obtain a softer structure of the part and to optimise material structure for subsequent working steps (machining, forming). Parameters depend on the material and the desired structure.

Vacuum Hardening and Tempering

Hardening is a typical heat treatment process combining heating to specific temperatures (mostly above **0 °C) and direct fast cooling or quenching of the part. The requirements are selected to change the materials structure partially or completely into martensite. The part undergoes tempering treatment after hardening in order to obtain high ductility and toughness.

Vacuum Case Hardening

One of the important processes is the case hardening or carburizing process. Parts are heated up to **0 °C - 1.**0 °C and by adding specific gases (hydrocarbons) into the atmosphere of the furnace the parts surface is enriched by absorbing carbon. Following this treatment the part is quenched in order to achieve the required properties. This results in higher resistance to stresses and friction on the components surface. The core of the part remains somewhat softer and more ductile which allows the part to carry high stresses through its entire life. For example, all gear parts for transmissions are treated this way.