Use the sketch tool on the hanger to visualize your work. Use the space below to write or type the equation and show your work algebraically. Find a value for `x` so that the hanger balances.

Press "Try It" to see if the hanger balances.

I'm sorry, as an AI text-based model, I cannot directly interact with tools like the sketch tool. However, I can help you with the algebraic approach to finding a value for `x` so that the hanger balances.

To find the value of `x`, we need to set up an equation based on the given information.

Let's assume that the two sides of the hanger are balanced when they have equal torques (moments).

Let's say the distance from the pivot point (fulcrum) to the left end of the hanger is `a`, and the distance from the pivot point to the right end of the hanger is `b`. The weight on the left end is `W1` and the weight on the right end is `W2`.

The torque is calculated by multiplying the weight by its distance from the pivot point. Therefore, for the hanger to balance, the sum of the torques on both sides should be zero:

Torque on the left side: `W1 * a`
Torque on the right side: `W2 * b`

Setting up the equation:

`W1 * a = W2 * b`

Now we can solve this equation for `x` by substituting the given weights and distances.

Please provide the values of `a`, `b`, `W1`, and `W2`, and I will help you solve for `x`.

As an AI text-based model, I am unable to perform the sketch tool and visualize your work. However, I can help you with the algebraic equation and solving it to find a value for 'x'.

Let's assume there are two arms of the hanger, with one side having a weight of 'w' units and a length of 'l' units, and the other side having a weight of 'x' units and an unknown length.

The equation for the balance of the hanger can be represented as:

w * l = x * (unknown length)

This equation states that the torque (force * distance from the pivot) on both sides of the hanger should be equal for it to be in balance.

To solve for 'x', divide both sides of the equation by the unknown length:

w * l / (unknown length) = x

So, the value of 'x' that will balance the hanger would be:

x = (w * l) / (unknown length)

Without the specific values of 'w', 'l', and the length of the unknown side, it's not possible to determine the exact value for 'x'. However, once you have those values, you can substitute them into the equation to find the numerical value for 'x'.

To find a value for x so that the hanger balances, we need to evaluate the sum of the torques on each side of the hanger. Torque is the rotational equivalent of force and depends on the distance and direction from the point of rotation or pivot.

Here's how you can approach this problem algebraically:

1. Identify the forces acting on the hanger: In this problem, we have two weights hanging from the hanger, each represented by a force acting downward. Let's call them W1 and W2.

2. Choose a reference point or pivot: To simplify the calculations, we need to choose a reference point or pivot around which the torques will be calculated. In this case, let's choose the left end of the hanger as the pivot point.

3. Assign distances: Assign distances from the pivot point to each weight. Let's call the distance from the pivot to W1 as d1 and the distance from the pivot to W2 as d2.

4. Write the torque equation: The torque exerted by each weight is equal to the force times the perpendicular distance from the pivot point. The torque equation for the hanger is:

Torque = (Weight) x (Distance)

For the left side (W1 side) of the hanger:
Torque1 = W1 * d1

For the right side (W2 side) of the hanger:
Torque2 = W2 * d2

5. Set up the balance equation: For the hanger to balance, the sum of the torques on each side of the hanger must be equal. So, we set up the equation:

Torque1 = Torque2

Which gives us:
W1 * d1 = W2 * d2

6. Substitute values and solve for x: Given the problem statement, we might be provided with specific values for W1, W2, d1, and d2, which can be substituted into the equation. To solve for x, you might need to rearrange the equation or algebraically manipulate it.

Once you've found a numerical value for x by solving the equation, you can substitute it into the original sketch or virtual simulation tool to check if the hanger balances.

Remember, the specific values for W1, W2, d1, and d2 will determine the numerical solution for x.