Momentum (p) = mass * velocity = 80 * 6 = 480 kg-m
1.2 miles = 1,931 meters (rounded)Momentum = M V-- Momentum of the person = (37) x (1,931) = 71,447 kilogram-meters per second, south-- Momentum of the bicycle = (18) x (1,931) = 35,758 kilogram-meters per second, south-- Momentum of the package = (55) x (1,931) = 106,216.7 kg-m/sec , southIt must be mentioned that this is one heck of a lot of momentum . . . roughlythe same as a one-ton car has when it's driving 262 miles per hour !That's because you have this 82-lb kid pedaling along on his bike at 4,320 mph . . .roughly Mach 5.7 at sea level !But the physics and math are bulletproof.
Linear momentum is defined as mv, where m is the mass and v is the velocity. To get the mass, simply add up the 37kg person and the 18kg bicycle. This makes 55 kg total. We multiply this by 1.2 meters per second. This equals 66kgm/s(Kilogram meters per second).
The Same! The statement above is true depending on what u mean. Think of it as a person running. While the person is running they have momentum ( momentum is mass times velocity). Now say they for some reason have to suddenly stop all at once, at the exact moment they stop the momentum is the same, this is why their body would jerk forward. However after that, when they were no longer moving, they would no longer have momentum, mathematically speaking that person's mass times their velocity of zero is then zero.
The momentum of the person is transferred to the ground upon landing. Initially, the person has momentum due to their motion in the air, and upon landing, this momentum is imparted to the ground as the person comes to a stop.
Imagery, 2nd Person Point of Vew, Enjambment
Momentum! Car has momentum before an accident, this momentum is transferred to the person after the car has made an abrupt stop (accident).
Kinetic Energy is E = 1/2 * m * V^2Therefore the car has an energy of 500 joules.There person has an energy of 32 joules.I'm not completely sure about how that equates to momentum but that car certainly has much more energy due to its greater mass.
Gravity is not expressed in kilograms! The kilogram is a unit of mass. The gravitational field is expressed in meters per second square; or the equivalent newtons per kilogram. In the case of Venus, this is 8.87 newton per kilogram. In other words, each kilogram has a weight of 8.87 newton. For comparison, on Earth, each kilogram has a weight of about 9.8 newton.
A 32 kilogram person would weigh approximately 70.55 pounds.
An average person can run 10 meters in approximately 2 to 3 seconds, depending on their fitness level and running ability. This translates to an average speed of about 3 to 5 meters per second. Factors such as age, training, and overall health can significantly influence this time.
The momentum of an object is given by the product of its mass and velocity. Thus, the magnitude of the person's momentum would be 120 kg·m/s (60 kg * 2 m/s).
Yes, it is possible to run up a wall using techniques such as parkour or wall running, where a person uses momentum and agility to run vertically up a wall for a short distance.