Flussmittelfreies Hartlöten unter Reaktiver Prozessgasatmosphäre - Ein Alternatives Verfahren zum Fügen von Aluminiumwerkstoffen

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Translated title of the contributionFlux-free brazing under reactive process gas atmosphere - An alternative process for joining of aluminium materials
Original languageGerman
Pages (from-to)594-598
Number of pages5
JournalMaterialwissenschaft und Werkstofftechnik
Volume39
Issue number9
Publication statusPublished - 15 Sept 2008

Abstract

Due to the high affinity of aluminium towards oxygen, joining of aluminium materials has ever been a challenge. In particular the efficiency of the process and the abandonment of fluxes during controlled atmosphere brazing have been within the focus of current research projects. The specific addition of reactive gases to the inert process gas atmosphere offers a suitable possibility of aluminium brazing without the use of fluxes. Under the application of hydrogen chloride the activation of the brazing and the workpiece surfaces is to be initiated, thus leading to dissolving the oxide layers. Moreover, the strongly reducing gas silane is used, which specifically removes oxygen and water residuals from the controlled atmosphere. Through a suitable controlled atmosphere brazing process the combination of both, reductive and activating additions, is to be used and tested upon their influence on the gas mixtures and materials used [1-5].

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Flussmittelfreies Hartlöten unter Reaktiver Prozessgasatmosphäre - Ein Alternatives Verfahren zum Fügen von Aluminiumwerkstoffen. / Bach, W.; Möhwald, K.; Holländer, U. et al.
In: Materialwissenschaft und Werkstofftechnik, Vol. 39, No. 9, 15.09.2008, p. 594-598.

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abstract = "Due to the high affinity of aluminium towards oxygen, joining of aluminium materials has ever been a challenge. In particular the efficiency of the process and the abandonment of fluxes during controlled atmosphere brazing have been within the focus of current research projects. The specific addition of reactive gases to the inert process gas atmosphere offers a suitable possibility of aluminium brazing without the use of fluxes. Under the application of hydrogen chloride the activation of the brazing and the workpiece surfaces is to be initiated, thus leading to dissolving the oxide layers. Moreover, the strongly reducing gas silane is used, which specifically removes oxygen and water residuals from the controlled atmosphere. Through a suitable controlled atmosphere brazing process the combination of both, reductive and activating additions, is to be used and tested upon their influence on the gas mixtures and materials used [1-5].",
keywords = "Aluminium brazing, Flux-free brazing, Furnace brazing, Gas activators, Reactive process gas atmosphere",
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T1 - Flussmittelfreies Hartlöten unter Reaktiver Prozessgasatmosphäre - Ein Alternatives Verfahren zum Fügen von Aluminiumwerkstoffen

AU - Bach, W.

AU - Möhwald, K.

AU - Holländer, U.

AU - Tiemann, S.

PY - 2008/9/15

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AB - Due to the high affinity of aluminium towards oxygen, joining of aluminium materials has ever been a challenge. In particular the efficiency of the process and the abandonment of fluxes during controlled atmosphere brazing have been within the focus of current research projects. The specific addition of reactive gases to the inert process gas atmosphere offers a suitable possibility of aluminium brazing without the use of fluxes. Under the application of hydrogen chloride the activation of the brazing and the workpiece surfaces is to be initiated, thus leading to dissolving the oxide layers. Moreover, the strongly reducing gas silane is used, which specifically removes oxygen and water residuals from the controlled atmosphere. Through a suitable controlled atmosphere brazing process the combination of both, reductive and activating additions, is to be used and tested upon their influence on the gas mixtures and materials used [1-5].

KW - Aluminium brazing

KW - Flux-free brazing

KW - Furnace brazing

KW - Gas activators

KW - Reactive process gas atmosphere

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U2 - 10.1002/mawe.200800329

DO - 10.1002/mawe.200800329

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