



By de-Broglie relation:
\[ \lambda = \frac{h}{p} \quad \text{(where \(h\) is Planck’s constant)} \]
This represents an inverse relationship between \(\lambda\) and \(p\), resulting in a rectangular hyperbola.
The relationship between the wavelength of an electron (\(\lambda\)) and its momentum (\(p\)) is given by the de Broglie equation, which is expressed as:
\(\lambda = \frac{h}{p}\)
where \(h\) is Planck's constant.
According to this equation, the wavelength \(\lambda\) is inversely proportional to the momentum \(p\). As momentum increases, the wavelength decreases, and vice versa. This relationship is represented graphically as a hyperbola, where one variable is inversely proportional to the other.
Upon analyzing the given options, the graph that most appropriately depicts the inverse relationship between \(\lambda\) and \(p\) is represented by a hyperbolic curve. Below is the correct graphical representation:
This graph illustrates that as the momentum (\(p\)) of the electron increases, its wavelength (\(\lambda\)) decreases, complying with the inverse relationship stated by the de Broglie hypothesis.
If \( \lambda \) and \( K \) are de Broglie wavelength and kinetic energy, respectively, of a particle with constant mass. The correct graphical representation for the particle will be:
Consider the following sequence of reactions : 
Molar mass of the product formed (A) is ______ g mol\(^{-1}\).

In the first configuration (1) as shown in the figure, four identical charges \( q_0 \) are kept at the corners A, B, C and D of square of side length \( a \). In the second configuration (2), the same charges are shifted to mid points C, E, H, and F of the square. If \( K = \frac{1}{4\pi \epsilon_0} \), the difference between the potential energies of configuration (2) and (1) is given by: