This is the energy that takes place as the “car” is falling down the hill. This is calculated through the formula: KE = 0.5 x mass x speed2 [3][4] This means that the kinetic energy increases as the speed increases, and vice versa. Therefore, this means the higher the kinetic energy, the faster the “car”. We can actually be extremely specific in terms of this relationship. We know that as the mass doubles, the KE doubles, but as the speed doubles, the KE quadruples [2].
People struggle to fill up there tanks in a truck the reason why is because of gas prizes coming to their highest. Trucks have bigger engines which use a lot more gas then cars. Also these two have maintenance in common. Weather if you have a car or truck they will both get you to where you want to go regardless of gas prizes. Of course you are a lot saver in a truck then a
Module 3: Natural Forces Affecting the Driver Vocabulary: Please define six (6) of the following terms in your own words. Please do not just copy and paste the definition. 1. Gravity - The force that attracts a body toward the center of the earth, or toward any other physical body having mass. For most purposes Newton's laws of gravity apply, with minor modifications to take the general theory of relativity into account.
So you see, Newton's 3rd law can explain your balloon powered car. air shoots out the back at high speed and the car moves forwards (more or less) at low speed. So the force used to accelerate all that air backwards has an opposite force on the balloon (reaction) which is tied to the car so pushes in the opposite direction. Well the air's coming out fast in the beginning but thats when the car is only just moving, it takes a while to speed up and it takes even longer if you have a heavy car. So you may be able to argue it shows that f is proportional to Mass x acceleration (but to be honest I think that would be stronging it a bit - balloons don't seem to give very constant thrust.
Then a cylinder was placed after writing down the results(On a numerical table) of how far the block was pushed from the marked spot. This hypothesis was successful. Mass plays a big part during a collision , because the greater the object the greater the collision is going to be. Not only mass plays a large part ,efficiency does as well. How does speed effect collision?
The value of the force constant for the spring is most nearly (A) 0.33 N/m (B) 0.66 N/m (C) 6.6 N/m (D) 33 N/m (E) 66 N/m 4. A block of weight W is pulled along a horizontal surface at constant speed v by a force F, which acts at an angle of with the horizontal, as shown above. The normal force exerted on the block by the surface has magnitude (A) W F cos (B) WFsin (C) W (D) W + Fsin (E) W + Fcos 5. When the frictionless system shown above is accelerated by an applied force of magnitude the tension in the string between the blocks is (A) 2F (B) F (C) F (D) F (E) F 6. A push broom of mass m is pushed across a rough horizontal floor by a force of magnitude T directed at angle as shown above.
Explain why. A: Inertia is that quantity which depends solely upon mass. The more mass, the more inertia. Momentum is another quantity in Physics which depends on both mass and speed. Momentum will be discussed in a later unit.
Tornadoes are responsible for more than $1 billion annually (adjusted to 2007 U.S. dollars) in property damage and for disrupting thousands of lives and businesses. On the local level, the impact of a tornado can be devastating within the area that it destroys . When a tornado hits a human environment, however, more extensive damage can happen. The impact of the tornado can include releasing chemicals, oil, and other toxins, into the environment, doing more extensive damage over a broader area. While this is not a major concern, especially compared to other potential causes of damage, it is a reason to make certain potentially hazardous materials are secure.
Kinetic Energy- when an object moves due to its motion. 5. Friction- when you're driving friction is what stops your car. 6. Traction- A force that makes heat and helps your tires keep traction on the r 7.
Even though Hurricane Hazel had devastating winds, it was not known for that, it was known for its speed. Hurricane Hazel’s speed allowed it to do damage to seven states and parts of Canada. “Hurricane hunter planes found Hazel’s winds to have accelerated to 150 mph, and the storm was moving at an incredible forward speed 30 mph (http://en.wikipedia.org/wiki/Hurricane_Hazel)”. Those speeds are very fast moving for hurricanes, especially ones of this size. This shows that this hurricane was much more different and deadly from most hurricanes.