A thermodynamic system is taken through the cyclic process \(ABC\) as shown in the \(P\!-\!V\) diagram. The total work done by the system during the cycle \(ABC\) is _______ J. 
Given: The area enclosed by the cycle in the \(P\!-\!V\) diagram represents the work done.
The work done by a system during a cyclic process is represented by the area enclosed by the loop on a \(P\!-\!V\) diagram. Here, the cycle is a triangle \(ABC\).
To calculate the area of the triangle \(ABC\), use the formula for the area of a triangle:
\[\text{Area} = \frac{1}{2} \times \text{base} \times \text{height}\]
In this diagram:
Substitute these values into the area formula:
\[\text{Area} = \frac{1}{2} \times 3\, \text{m}^3 \times 200\, \text{Pa} = 300\, \text{J}\]
The work done by the system in the cycle \(ABC\) is precisely \(300\, \text{J}\), which fits within the expected range of [300,300].
A small block of mass \(m\) slides down from the top of a frictionless inclined surface, while the inclined plane is moving towards left with constant acceleration \(a_0\). The angle between the inclined plane and ground is \(\theta\) and its base length is \(L\). Assuming that initially the small block is at the top of the inclined plane, the time it takes to reach the lowest point of the inclined plane is _______. 