A wire of area of cross-section `10^(-6) m^(2)` is increased in length by 0.1 %. The tension produced is 1000 N. The Young's modulus of wire is

A wire of area of cross section 1xx10^(-6)m^(2) and length 2 m is stretched through 0.1 xx 10^(-3)m . If the Young's modulus of a wire is 2xx10^(11)N//m^(2) , then the work done to stretch the wire will be

The area of cross-section of a wire is 10^(-5) m^(2) when its length is increased by 0.1% a tension of 1000N is produced. The Young's modulus of the wire will be (in Nm^(-2) )

The area of cross-section of a wire is 10^(-5) m^2 when its length is increased by 0.1% a tension of 1000N is produced. The Young's modulus of the wire will be

A wire of length 10 m and cross-section are 10^(-6) m^(2) is stretched with a force of 20 N. If the elongation is 1 mm, the Young's modulus of material of the wire will be

The length of a wire is 1.0 m and the area of cross-section is 1.0 xx 10^(-2) cm^(2) . If the work done for increase in length by 0.2 cm is 0.4 joule, then Young's modulus of the material of the wire is

A wire of length L and area of cross-section A, is stretched by a load. The elongation produced in the wire is I. If Y is the Young's modulus of the material of the wire, then the torce corstant of the wire is

A wire of length L and area of cross-section A, is stretched by a load. The elongation produced in the wire is I. If Y is the Young's modulus of the material of the wire, then the force constant of the wire is

A copper wire of length 4.0 mm and area of cross-section 1.2 cm^(2) is stretched with a force of 4.8 xx 10^(3) N. If Young's modulus for copper is 1.2xx10^(11) N//m^(2) , the increases in the length of the wire will be

An elongation of 0.1% in a wire of cross-sectional 10^(-6) m^(2) casues a tension of 100N.Y for the wire is