A nonuniform, horizontal bar of mass 3.43 kg is supported by two massless wires against gravity. The left wire makes an angle 21.9 degrees, with the horizontal, and the right wire makes an angle 61.8 degrees. The bar has length 1.04 m.

A) Find the position of the center of mass of the bar, x, measured from the bar's left end.

B) What is the tension in the wire in the right side of the bar (T_2)?

C) What is the tension in the wire in the left side of the bar (T_1)?

To find the position of the center of mass of the bar (x) and the tensions in the two wires (T1 and T2), we can use the principles of equilibrium.

A) Finding the position of the center of mass (x):
The center of mass of a nonuniform bar lies at a distance (x) from the left end. We can find this by taking moments about either end of the bar.

Taking moments about the left end of the bar (origin):
Sum of clockwise moments = Sum of counterclockwise moments

(Mass of left part * g * distance to center of mass) + (Mass of right part * g * distance to center of mass) = 0

Let's label the left part (from left end to the center of mass) as "m1" and the right part (from center of mass to right end) as "m2".

(m1 * g * x) + (m2 * g * (1.04 - x)) = 0

Substituting the given values, we have:
(m1 * 9.8 * x) + (m2 * 9.8 * (1.04 - x)) = 0

Given that the total mass, m1 + m2, is 3.43 kg, we can rewrite the equation as:
(x * m1) + ((1.04 - x) * m2) = 0.

Solving this equation will give us the position of the center of mass (x).

B) Finding the tension in the wire on the right side of the bar (T2):
To find the tension in the wire on the right side, we need to consider the vertical forces acting on the bar.

The weight of the bar acts downward (due to gravity) and is equal to the total mass of the bar multiplied by the acceleration due to gravity, which is 9.8 m/s^2.

The vertical component of the tension T1 balances the weight of the left part (m1) of the bar:
T1 * cos(21.9°) = m1 * g.

Similarly, the vertical component of the tension T2 balances the weight of the right part (m2) of the bar:
T2 * cos(61.8°) = m2 * g.

Solving these equations will give us the values of T1 and T2.

C) Finding the tension in the wire on the left side of the bar (T1):
Using the equation from step B, we can substitute the values of m1, m2, and T2 to find the tension in the left wire (T1).

Remember to convert the angles from degrees to radians in the calculations.

Note: Please provide the values of m1, m2, or any other values mentioned in the problem in order to solve the equations accurately.