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Solid-Liquid Interdiffusion (SLID) Bonding of p-Type Skutterudite Thermoelectric Material Using Al-Ni Interlayers.


ABSTRACT: Over the past few years, significant progress towards implementation of environmentally sustainable and cost-effective thermoelectric power generation has been made. However, the reliability and high-temperature stability challenges of incorporating thermoelectric materials into modules still represent a key bottleneck. Here, we demonstrate an implementation of the Solid-Liquid Interdiffusion technique used for bonding Mmy(Fe,Co)?Sb12 p-type thermoelectric material to metallic interconnect using a novel aluminium?nickel multi-layered system. It was found that the diffusion reaction-controlled process leads to the formation of two distinct intermetallic compounds (IMCs), Al?Ni and Al?Ni?, with a theoretical melting point higher than the initial bonding temperature. Different manufacturing parameters have also been investigated and their influence on electrical, mechanical and microstructural features of bonded components are reported here. The resulting electrical contact resistances and apparent shear strengths for components with residual aluminium were measured to be (2.8 ± 0.4) × 10-5 ??cm² and 5.1 ± 0.5 MPa and with aluminium completely transformed into Al?Ni and Al?Ni? IMCs were (4.8 ± 0.3) × 10-5 ??cm² and 4.5 ± 0.5 MPa respectively. The behaviour and microstructural changes in the joining material have been evaluated through isothermal annealing at hot-leg working temperature to investigate the stability and evolution of the contact.

SUBMITTER: Placha K 

PROVIDER: S-EPMC6317193 | biostudies-literature | 2018 Dec

REPOSITORIES: biostudies-literature

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Solid-Liquid Interdiffusion (SLID) Bonding of p-Type Skutterudite Thermoelectric Material Using Al-Ni Interlayers.

Placha Katarzyna K   Tuley Richard S RS   Salvo Milena M   Casalegno Valentina V   Simpson Kevin K  

Materials (Basel, Switzerland) 20181206 12


Over the past few years, significant progress towards implementation of environmentally sustainable and cost-effective thermoelectric power generation has been made. However, the reliability and high-temperature stability challenges of incorporating thermoelectric materials into modules still represent a key bottleneck. Here, we demonstrate an implementation of the Solid-Liquid Interdiffusion technique used for bonding <i>Mm</i><sub>y</sub>(Fe,Co)₄Sb<sub>12</sub> p-type thermoelectric material t  ...[more]

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