The acceleration is given by the tension in the rope and the component
of the component of the weight acting along the plane.
Response:
[tex]The \ expression \ for \ the \ acceleration, \ a \ is\ \underline{a = \dfrac{m_2 \cdot g \cdot sin \left(\theta_2 \right) - m_1 \cdot g \cdot sin \left(\theta_1 \right) }{m_1 + m_2}}[/tex]
A possible question is the expression for the acceleration, a in terms of the mass, m₁, m₂, and the angles θ₁ and θ₂.
The drawing representing the situation, obtained from a similar question and created with MS Visio, is attached
From the drawing, we have;
By equilibrium of forces, the tension in the cable, T, is given as follows;
For the cart, m₁; T = m₁·a + m₁·g·sin(θ₁)
For the cart, m₂; T = m₂·g·sin(θ₂) - m₂·a
Where;
a = The acceleration that the two carts experience
Equating both values of T gives;
m₁·a + m₁·g·sin(θ₁) = m₂·g·sin(θ₂) - m₂·a
m₁·a + m₂·a = m₁·g·sin(θ₁) - m₂·g·sin(θ₂)
The
[tex]a = \mathbf{\dfrac{m_2 \cdot g \cdot sin \left(\theta_2 \right) - m_1 \cdot g \cdot sin \left(\theta_1 \right) }{m_1 + m_2}}[/tex]
The acceleration, a, that the two carts experience in terms of m₁, m₂, θ₁, θ₂,
is therefore;
Learn more about equilibrium of forces here:
https://brainly.com/question/12980489