List I | List II | ||
A | Expiratory capacity | I | Expiratory reserve volume + Tidal volume + Inspiratory reserve volume |
B | Functional residual capacity | II | Tidal volume + Expiratory reserve volume |
C | Vital capacity | III | Tidal volume + Inspiratory reserve volume |
D | Inspiratory capacity | IV | Expiratory reserve volume + Residual volume |
- Expiratory capacity (A) is the sum of Expiratory reserve volume and Tidal volume (II).
- Functional residual capacity (B) is the sum of Expiratory reserve volume and Residual volume (IV).
- Vital capacity (C) is the sum of Tidal volume, Inspiratory reserve volume, and Expiratory reserve volume (I).
- Inspiratory capacity (D) is the sum of Tidal volume and Inspiratory reserve volume (III).
Consider a water tank shown in the figure. It has one wall at \(x = L\) and can be taken to be very wide in the z direction. When filled with a liquid of surface tension \(S\) and density \( \rho \), the liquid surface makes angle \( \theta_0 \) (\( \theta_0 < < 1 \)) with the x-axis at \(x = L\). If \(y(x)\) is the height of the surface then the equation for \(y(x)\) is: (take \(g\) as the acceleration due to gravity)
A constant voltage of 50 V is maintained between the points A and B of the circuit shown in the figure. The current through the branch CD of the circuit is :