\(ΔT_f =\frac { k_f \times W_1 \times1000 }{W_2 \times M_1}\)
Where,
W1 = Weight of the solute
W2 = Weight of solvent
M1 = Molar mass of solute
kf = Freezing point depression constant
\(ΔT_f = \frac {5.12 \times 1\times 1000}{51.2 \times 250}\)
\(ΔT_f = 0.4\ K\)
So, the correct option is (A): 0.4 K
List I (Spectral Lines of Hydrogen for transitions from) | List II (Wavelength (nm)) | ||
A. | n2 = 3 to n1 = 2 | I. | 410.2 |
B. | n2 = 4 to n1 = 2 | II. | 434.1 |
C. | n2 = 5 to n1 = 2 | III. | 656.3 |
D. | n2 = 6 to n1 = 2 | IV. | 486.1 |
Solutions are homogeneous mixtures of two or more substances, where the solute is uniformly dispersed in the solvent. Solutions can be classified into several types based on their composition and properties.
Understanding the different types of solutions is important for understanding their properties, behavior, and applications in various fields, such as chemistry, biology, and engineering.