Abstract

A lot of amorphous alloy deposits in the binary (Ni, Co, Cu)–(P, B) alloy systems fabricated by electroless plating (EP) have been reported up to date. But no one reported their theoretical modeling of the amorphous formation and calculated their concentration range of amorphous formation (RAF). Using Miedema model and subregular model scheme, the RAFs for the six EP (Ni, Co, Cu)–(P, B) alloys and three Ni–Cu, Ni–Co and Co–Cu alloys have been calculated systematically for the first time. The calculated results are in agreement with experimental observations. Experiments and calculations for the RAFs in the latter three alloy systems reveal that not any RAF formed except crystalline states. The huge difference between the six metal–metalloid alloys and three metal–metal alloys in RAF has been discussed in detail in the paper.

Highlights

  • Just after discovering the electroless plating (EP) Ni–P alloy deposits by Brenner and Riddell [1], Gutzeit and Mapp [2] measured the composition and structure of ‘Kanigen’ coating by X-ray and electron diffraction

  • A lot of amorphous alloy deposits in the binary (Ni, Co, Cu)–(P, B) alloy systems fabricated by electroless plating (EP) have been reported up to date

  • No one reported their theoretical modeling of the amorphous formation and calculated their concentration range of amorphous formation (RAF)

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Summary

Introduction

Just after discovering the electroless plating (EP) Ni–P alloy deposits by Brenner and Riddell [1], Gutzeit and Mapp [2] measured the composition and structure of ‘Kanigen’ coating by X-ray and electron diffraction. The problem is that nearly 70 years after discovering the EP Ni–P alloy deposits by Brenner and Riddell, almost no one reported the theoretical model and calculations of the RAF in EP alloy deposits up to date. This situation is somewhat strange because people have been measuring a lot of the RAF in EP alloy coatings.

Part A
Conclusions
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