Material Aligned Process Control for the Welding Technology of Locally Hardened Materials

Volker Wesling; T. Rekersdrees

doi:10.4028/www.scientific.net/AMR.22.77

Paper Titles

Developments for the Production of Local Foamed Hollow Sections
p.37

Local Effects of Welding Seams with Laser-Based Joining Concepts for High-Strength Load-Transferring Structure Modules
p.49

Selective Strain Hardening of Structure Components by Action Media Based Cold Massive Forming
p.57

Development of Combined Manufacturing Technologies for High-Strength Structure Components
p.67

Material Aligned Process Control for the Welding Technology of Locally Hardened Materials
p.77

Three-Dimensional Optical Measurement with Locally Adapted Projection
p.83

Fatigue Life Calculation Concepts for Structures with Inhomogenous Strength Properties
p.91

Low Heat Joining – Manufacture and Fatigue of Soldered Locally Strengthened Structures
p.101

Setting of Gradient Material Properties and Quality Control of High Tension 3D-Weld Joints
p.113

HomeAdvanced Materials ResearchAdvanced Materials Research Vol. 22Material Aligned Process Control for the Welding...

Material Aligned Process Control for the Welding Technology of Locally Hardened Materials

Abstract:

The subproject B5 examines the welding technological processing of locally hardened materials to produce structures and knots by means of high-freqency welding (HFW). The aim of B5 is a defined intervention in process and plant technology to control current voltage, temperature and compressive stress distribution of the entire weld seam. Particularly the effects on locally hardened areas have to be measured and optimized. Also the process specific advantages of HFW (e.g. plastic deformations and the application of an in situ heat treatment) have to be examined and optimized to improve structural strength.

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Periodical:

Advanced Materials Research (Volume 22)

Pages:

77-82

DOI:

https://doi.org/10.4028/www.scientific.net/AMR.22.77

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Online since:

August 2007

Authors:

Volker Wesling, T. Rekersdrees

Keywords:

Conductive High-Frequency Welding, Heat Treatment, High-Frequency Welding, Inductive High-Frequency Welding, Local Hardening, Plastic Deformation, Proximity Effect, Skin Effect, Thermomechanical Treatment (TMT)

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