A mining cart is pulled up a hill at 24 km/h and then pulled back down the hill at 31 km/h through its original level. (The time required for the cart's reversal at the top of its climb is negligible.) What is the average speed of the cart for its round trip, from its original level back to its original level?
Summary of Answer-We will find the average speed by dividing total distance travelled by cart with total time taken by it in this journey.

A mining cart is pulled up a hill at 24 km/h and then pulled back down...
A car travels up a hill at a constant speed of 31 km/h and returns down the hill at a constant speed of 79 km/h. Calculate the average speed for the round trip.
A car travels up a hill at a constant speed of 40 km/h and returns down the hill at a constant speed of 60 km/h. Calculate the average speed for the round trip.
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4. A car travels up a hill at a constant speed of 40 km/h and returns down the hill at a constant speed of 60 km/h. (a) The displacement for the round trip is Hint: r ? (b) The average velocity for the round trip is Hint: -=- (c) The average speed for the round trip is Hint: average speedtotal distance km/h Ax kmh Assume the distance for one way is d. , -d...
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Module 2B: Velocity and Acceleration 4. A car travels up a hill at a constant speed of 40 km/h and returns down the hill at a constant speed of 60 km/h. (a) The displacement for the round trip is Hint: Ar ? (b) The average velocity for the round trip is Hint: Ar (c) The average speed for the round trip skm/h km/h At average speed -total distacekm/h total time Assume the distance for one way is d,...
A roller coaster reaches the top of the steepest hill with a speed of 6.00 km/h. It then descends the hill, which is at an average angle of 25° and is 60.0 m long. What will its speed be when it reaches the bottom? Assume µk = 0.16.
A roller coaster reaches the top of the steepest hill with a speed of 6.1 km/h . It then descends the hill, which is at an average angle of 41 ∘ and is 37.5 m long. Part A What will its speed be when it reaches the bottom? Assume μk = 0.18.
An 1100 kg car is shifted into neutral and coasts down a 10 meter hill and then back up a 15 meter hill. If you assume that frictional losses are negligible and the car starts out at 60 mph, what will its speed be when it reaches the top of the second hill? Use g 9.8 m/s2, 1 mile 1600 meters, and round answer to 2 significant figures. - Gas station 15 m 10 m
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Imagine a cyclist coasting down a 5.0◦ incline at a constant speed of 6.0 km/h because of air resistance. If the total mass of the bicycle + cyclist is 50 kg, how much force must be generated to climb back up the incline at the same speed (and same air resistance)?
A car has an initial speed of 118 km/h and climbs up an incline with its engine DISENGAGED (no engine force). DON"T use scientific notation. Angle is 33 degrees. (a) If work done by friction is negligible, How high (the h in the figure) a hill can the car coast up (engine disengaged) before coming to a stop? (b) If, in actuality, a 700-kg car with an initial speed of 118 km/h is observed to coast up a hill to...