Abstract

The phase relations, mechanism of phase formation, crystal structures, physical properties of novel compounds in the Ce–Zn–Si system were investigated.

Highlights

  • Ternary compounds Ce–T–Si (T is one of the late transition metals) have been known for their interesting physical properties, such as heavy fermion and unconventional superconductivity,[1,2] Kondo-behaviour and quantum criticalities,[3] intermediate valency,[4] thermoelectric features,[5] etc

  • A few investigations were already concerned with the Ce–Zn–Si system

  • Phase equilibria for the Ce–Zn–Si system have been derived at 800 C by Malik et al.[8] and revealed the existence of 4 ternary compounds, labeled as s1 to s4

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Summary

Introduction

Ternary compounds Ce–T–Si (T is one of the late transition metals) have been known for their interesting physical properties, such as heavy fermion and unconventional superconductivity,[1,2] Kondo-behaviour and quantum criticalities,[3] intermediate valency,[4] thermoelectric features,[5] etc. The high vapor pressure of these metals complicates sample preparation, and requires careful control of compositions. Kido et al.[7] reported paramagnetism and metallic behavior of REZnSi compounds (RE 1⁄4 Ce, Nd, Sm, Gd, Tb, Ho) in the temperature range of 77–300 K. Phase equilibria for the Ce–Zn–Si system have been derived at 800 C by Malik et al.[8] and revealed the existence of 4 ternary compounds, labeled as s1 to s4.

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