Step 1: The velocity components are \( v_x = K y \) and \( v_y = x \).
Step 2: To find the equation of the path, we need to eliminate time \( t \). Using the fact that \( v_x = \frac{dx}{dt} \) and \( v_y = \frac{dy}{dt} \), we can write: \[ \frac{dx}{K y} = \frac{dy}{x}. \]
Step 3: Cross multiplying and integrating both sides: \[ x^2 = y^2 + {constant}. \] Hence, the general equation for the path is: \[ y^2 = x^2 + {constant}. \]
A thermodynamic system is taken from an original state D to an intermediate state E by the linear process shown in the figure. Its volume is then reduced to the original volume from E to F by an isobaric process. The total work done by the gas from D to E to F will be:
