The electrical conductance of copper metal decreases with temperature, but that of a CuSO 4 solution increases with temperature has to be explained. Concept introduction: Electrical conductivity of metals: Electrical conductivity of metal is nothing but the moment of electrically charged particles or electrons. In metals, the atoms are characterized in the presence of valence electrons. The mobility of these valence electrons form one end to another end in a metal will generates electricity. This is called electrical conductivity in metals. Metals: A metal is a material in the form of an element, compound, or in the form of alloy and which is basically hard when it is in solid state. Metals are good conductors and shows electrical conductiviy and thermal conductivity. Due to electron delocalization in conduction band metals shows electrical property. Metals have wide range of applications in industries and our daily life.

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Chapter 21, Problem 21.75QP

Interpretation Introduction

Interpretation:

The electrical conductance of copper metal decreases with temperature, but that of a CuSO4 solution increases with temperature has to be explained.

Concept introduction:

Electrical conductivity of metals:

Electrical conductivity of metal is nothing but the moment of electrically charged particles or electrons.

In metals, the atoms are characterized in the presence of valence electrons.

The mobility of these valence electrons form one end to another end in a metal will generates electricity. This is called electrical conductivity in metals.

Metals:

A metal is a material in the form of an element, compound, or in the form of alloy and which is basically hard when it is in solid state.

Metals are good conductors and shows electrical conductiviy and thermal conductivity.

Due to electron delocalization in conduction band metals shows electrical property.

Metals have wide range of applications in industries and our daily life.

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