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Development of Gas Assisted Bonding

Reference number
Coordinator Lunds universitet - Lunds Tekniska Högskola Inst f maskinvetenskaper
Funding from Vinnova SEK 2 400 000
Project duration October 2022 - September 2025
Status Ongoing
Venture The strategic innovation programme for Metallic material
Call Springboard to the metallic materials of the future - Step 2

Purpose and goal

The overarching purpose of this project is to research and develop a novel joining method based on Chemical Vapor Transfer (CVT) technology. The goal is to deliver the research foundations and proof-of-concepts needed to initiate industrial R&D. A large portion of Swedish manufacturing industry need efficient brazing to join their material systems. In this project, we will investigate an innovative way of joining, which is both resource efficient and promote decarbonization technology.

Expected effects and result

Learn about the fundamental principles of introducing melting point depressant elements as gaseous species to enable high performing and homogeneous joints. Build the understanding, and establish solutions, for eliminating the surface oxide, or its ability to hinder wetting, thus allowing metal-to-metal bonding. Confirm the innovative Gas Assisted Bonding process as a viable joining method in a lab environment thus fostering future research in a move towards industrial implementation.

Planned approach and implementation

We will synthesize nano-particles of industrially relevant alloys and conduct experiments in an in-situ transmission electron microscope and synchrotron beamlines. The experiments will elucidate fundamental principles of the interactions between gas-phase melting point depressants and the metals, and between gas-phase oxide removers and metal oxides. Thermodynamic models will help us to find the right materials and describe the phenomena.

The project description has been provided by the project members themselves and the text has not been looked at by our editors.

Last updated 22 August 2023

Reference number 2022-01585