[" In a book,the answer for a particular question is expressed as "],[qquad b=(ma)/(k)[sqrt(1+(2kl)/(ma))]]

In a book, the answer for a particular question is expressed as b=(ma)/(k)[sqrt(1+(2kl)/(ma))] here m represents mass, a represent acceleration, l represent length. The unit of b should be :-

In a book, the answer for a particular question is expressed as b=(ma)/(k)[sqrt(1+(2kl)/(ma))] here m represents mass, a represent acceleration, l represent length. The unit of b should be :-

In a book, the answer for a particular question is expressed as b=(ma)/(k)[sqrt(1+(2kl)/(ma))] here m represents mass, a represent acceleration, l represent length. The unit of b should be :-

In a book, the answer for a particular question is expressed as. b=(ma)/(l)[sqrt(1+(2kl)/(ma)] . Here m represents mass, 'a' represents acceleration, l represents length. The unit of 'b' should be in SI system)

An unknown quantity ''alpha'' is expressed as alpha = (2ma)/(beta) log(1+(2betal)/(ma)) where m = mass, a = acceleration l = length, The unit of alpha should be

An unknown quantity ''alpha'' is expressed as alpha = (2ma)/(beta) log(1+(2betal)/(ma)) where m = mass, a = acceleration l = length, The unit of alpha should be

Give the number of pair enantiomer of [Ma_(2)b_(2)cd] .

Give the number of pair enantiomer of [Ma_(2)b_(2)cd] .

If pressure can be expressed as P=(b)/(a)sqrt(1+(kthetat^(3))/(ma)) where k is the Boltzmann's constant, theta is the temperature, t is the time and a and b are constants, then dimensional formula of b is equal to the dimensional formula of

Equation of a normal to the given ellipse whose slope is 'm' is y=ma-+((a^(2)-b^(2))m)/(sqrt(a^(2)+b^(2)m^(2)))