Questions: If you are not happy with your timing effort, click on the curling stone to reset the system Otherwise, find the velocity and KE energy of the stone and check your work

If you are not happy with your timing effort, click on the curling stone to reset the system

Otherwise, find the velocity and KE energy of the stone and check your work
Transcript text: 6.71 s If you are not happy with your timing effort, click on the curling stone to reset the system Otherwise, find the velocity and KE energy of the stone and check your work
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Solution

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Solution Steps

Step 1: Determine the distance traveled

The curling stone starts at the 0 m mark and stops near the 10 m mark. The question implies the stone stops right at the 10m mark. Therefore, the total distance traveled is 10 m.

Step 2: Find the time taken

The problem requires a time value to determine the velocity. However, the time information is missing from the provided image. Assuming the time taken is 't' seconds.

Step 3: Calculate the velocity

Velocity is defined as distance divided by time. In this case, the distance is 10 m and the time is 't' seconds. Therefore, the velocity (v) is: \(v = \frac{10}{t}\) m/s

Step 4: Find the mass of the curling stone

The mass of the curling stone is not provided in the given image. We'll assume the mass is 'm' kg. A standard curling stone has a mass between 17.24 kg and 19.96 kg.

Step 5: Calculate the kinetic energy

Kinetic energy (KE) is given by the formula: KE = (1/2) * m * v^2. Substituting the velocity calculated in Step 3, we have: \(KE = \frac{1}{2} * m * (\frac{10}{t})^2 = \frac{50m}{t^2}\) J

Final Answer

Velocity: \\( \boxed{v = \frac{10}{t} \text{ m/s}} \\) (where 't' is the time taken in seconds) Kinetic Energy: \\( \boxed{KE = \frac{50m}{t^2} \text{ J}} \\) (where 't' is the time in seconds and 'm' is the mass of the curling stone in kg)

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