谢佑卿编著的《系统合金科学（英文版）》是“有色金属理论与技术前沿丛书”之一。以量子力学为背景，吸取能带理论精华，发展势函数理论和余瑞璜院士在诺贝尔奖获得者Pauling价键理论基础上建立的经验电子理论，以多态杂化、多种性质定态、品格常数超越方程，固体中多原子相互作用势能函能等创新成果，构建了新的“纯金属系统科学”框架。

《系统合金科学（英文版）》由谢佑卿编著，是“有色金属理论与技术前沿丛书”之一。

《系统合金科学（英文版）》内容如下：

Taking Fe, Co, Ni pure metals and Ag - Cu, Ti - Al, Au - Cu systems as examples, the systematic science of alloys has been presented in the monograph , which includes six levels: separated theory of potential energies and volumes for characteristic atoms, valence bond theory of characteristic crystals, separated theory of thermodynamic properties for characteristic crystals, characteristic atom arrangement crystallography of alloy phases, thermodynamics of mixed characteristic crystals for alloy phases and comprehensive theory of mixed characteristic crystals for phase transformation, phase equilibrium and phase diagrams. It may be available for reference to graduates, teachers and researchers.

Foreword

Systematic Science of Alloys and Its Innovation

Chapter I Ideology and Methodology of Systematic Science of Alloys

Theoretical Framework of Systematic Science of Alloys

Development Course of Metallic Materials Science and Evolution of

Human Thinking Mode

Chapter II Systematic Science of Pure Metals--Valence Bond Theory of Characteristic Crystals

Background and Outline of One-atom Valence Bond Theory of Pure

Metals

A New Potential Function with Many-atom Interactions in Solid

Electronic Structure and Properties of Pure Iron

Electronic Structure and Properties of Pure Cobalt

Electronic Structure and Properties Ni Metal

Chapter III Systematic Science of Ag - Cu System

Atomic Energies and Gibbs Energy Functions of Ag- Cu Alloys

Atomic Volumes and Volume Functions for Ag -Cu Alloys

Electronic Structure of Ag- Cu Alloys

Phase Diagram and Thermodynamic Properties of Ag -Cu Alloys

Chapter IV Systematic Science of Ti - AI System

Infiuencds of XTi/XA on Atomic States, Lattice Constants and

Potential-energy Planes of Ordered Fcc TiA1 Type Alloys

Atomic States, Potential Energies, Volumes, Stability and

Brittleness of Ordered Fcc TiA13 Type Alloys

Atomic States, Potential Energies, Volumes, Stability and

Brittleness of Ordered Fcc Ti3A1 Type Alloys

Atomic States, Potential Energies, Volumes, Stability and

Brittleness of Ordered Fcc TiA12 Type Alloys

Chapter V Systematic Science of Cu -Ni and Au -Ni Systems

Microstructure and Properties of Cu- Ni Alloys

Relationship Between Partial and Average Atomic Volumes of

-Components in Au- Ni Alloys

Chapter VI Systematic Science of Au - Cu System Based on Experimental Data of Disordered Alloys

Potential Energy Sequences of Characteristic Atoms on Basis of

Heats of Formation of Disordered Au(1-x) Cux Alloys

Volume Sequences of Characteristic Atoms Separated from Experimental

Volumes of Disordered Au Cu Alloys

Chapter VII Systematic Science of Au - Cu System Based on First-principles Electron Theory of Alloys

Potential Energies of Characteristic Atoms Separated from First-principles

Calculated Heats of Formation of AuCu and AuCu3 Compounds

Volumes of Characteristic Atoms Separated from First-principles

Calculated Volumes of L10 -AuCu and L12 -AuCu3 Compounds

Chapter VIII Systematic Science of Au- Cu System Based on Experimental Data of Intermetallics

Potential Energies of Characteristic Atoms Separated from Experimental

Heats of Formation of AuCu and AuCu3 Compounds

Volume Sequences of Characteristic Atoms Separated from Experimental

Volumes of AuCu and AuCu3 Compounds

Systematic Science of Au -Cu System Based on Experimental Data of

Disordered Alloys: Characteristic Atom Occupation Patterns of

Au3Cu, AuCu3 , AuCuI and AuCulI

Energetic Properties of Characteristic Crystals Separated from

Experimental Heats of Formation of AuCu and AuCu3 Compounds

Energetic Properties of Disordered Au Cux Alloys Obtained on

Basis of Experimental Heats of Formation of AuCu and AuCu3

Compounds

Variations in Energetic Properties on Disordering L12 -AuCu3

Compound Studied on Basis of Experimental Heats of Formation of

AuCu and AuCu3 Compounds Changing with Temperature