If the capacitance of a nanocapacitor is measured in terms of a unit `u` made by combining the electric charge `e`, Bohr radius `a_(0)`, Planck’s constant ‘h’ and speed of light ‘c’ then

The energy of a photon of wavelength lambda is [ h = Planck's constant, c = speed of light in vacuum ]

If e, in_(0) h and c respectively present electric charge, permittivitty of free space, Planck's constant and speed of light then (e^(2))/(in_(0) hc) has the dimensions of

n number of photons of frequency f are emitted per second from a light source of power P (h = Planck's constant, c = speed of light). Then

The dimensions of e^(2)//4pi epsilon_(0)hc , where e, epsilon_(0),h and c are electronic charge, electric permittivity, Planck’s constant and velocity of light in vacuum respectively

The dimensions of e^(2)//4pi epsilon_(0)hc , where e, epsilon_(0),h and c are electronic charge, electric permittivity, Planck’s constant and velocity of light in vacuum respectively

Expression for time in terms of G (universal gravitational constant), h (Planck constant) and c (speed of light) is proportional to:

Expression for time in terms of G (universal gravitational constant), h (Planck constant) and c (speed of light) is proportional to:

The dimension of the quantity 1/epsilon_0 e^2/(hc) is (e charge of electron,h Planck's constant and c=velocity of light)

The dimension of the quantity 1/epsilon_0 e^2/(hc) is (e charge of electron,h Planck's constant and c=velocity of light)

An atom makes a transition from a state of energy E to one of lower energy E . Which of the following gives the wavelength of the radiation emitted in terms of the Planck's constants h and the speed of light c ?