Not enough information to answer--what's the method of propulsion? Gravity, pushing it, tying it to your cat, or attaching a model rocket motor?
m = 4.5kg v = 2.2m/s M = 15kg V = ? ---- velocity of ham and cart before: momentum of ham = pv momentum of cart = 0 after: momentum of ham and cart = (m+M)V momentum of ham + momentum of cart = momentum of ham and cart mv + 0 = (m+M)V mv / (m+M) = V (4.5*2.2) / (4.5 + 15) = 0.51 kgm/s
When a horse applies more force to a cart, the speed of the cart will increase. This is due to Newton's second law of motion, which states that the acceleration of an object is directly proportional to the force applied to it. So, the greater the force applied by the horse, the faster the cart will accelerate and increase in speed.
If the cart is moving at a constant speed in a straight line, it is in uniform motion. If the cart is changing its speed or direction, it is accelerating.
The final velocity of the cart can be calculated using the formula: final velocity = initial velocity + (net force/mass) * time. Assuming the initial velocity is 0 m/s, the final velocity would be: 0 + (500N / 38kg) * 4s = 52.63 m/s.
In terms of stopping a physics problem involving a shopping cart, it would be easier to stop a cart with a lower mass and slower velocity. This is because the stopping distance is directly related to the mass and velocity of the object. A lighter cart moving at a slower speed will be easier to stop compared to a heavier cart moving at a faster speed.
m = 4.5kg v = 2.2m/s M = 15kg V = ? ---- velocity of ham and cart before: momentum of ham = pv momentum of cart = 0 after: momentum of ham and cart = (m+M)V momentum of ham + momentum of cart = momentum of ham and cart mv + 0 = (m+M)V mv / (m+M) = V (4.5*2.2) / (4.5 + 15) = 0.51 kgm/s
The speed of a cart rolling down a ramp primarily depends on the angle of the ramp and the acceleration due to gravity, rather than the mass of the cart itself. According to physics, when friction is negligible, all objects accelerate at the same rate regardless of their mass. Therefore, while a heavier cart may have more gravitational force acting on it, it also has more inertia, resulting in the same final speed as a lighter cart at the bottom of the ramp, assuming they start from rest and experience the same conditions.
When a horse applies more force to a cart, the speed of the cart will increase. This is due to Newton's second law of motion, which states that the acceleration of an object is directly proportional to the force applied to it. So, the greater the force applied by the horse, the faster the cart will accelerate and increase in speed.
V = 10cm/2s = 5cm/s Therefore, the cart's speed is 5cm/s.
If the cart is moving at a constant speed in a straight line, it is in uniform motion. If the cart is changing its speed or direction, it is accelerating.
A very basic model where we can assume there is no momentum loss during the collision... we need to calculate momentum, p.p = mvwhere m = 1 kg (the mass of the cart) and v = 0.5 m/s (velocity of the cart)p = 1 kg . 0.5 m/s = 0.5 kg.m/sAfter the collision the momentum will be the same, but the mass has doubled...so p = mv = 0.5 kg.m/s = (1 kg + 1 kg).vv = 0.5 kg.m/s / 2 kg = 0.25 m/s
.281 meters
The final velocity of the cart can be calculated using the formula: final velocity = initial velocity + (net force/mass) * time. Assuming the initial velocity is 0 m/s, the final velocity would be: 0 + (500N / 38kg) * 4s = 52.63 m/s.
You can increase the speed of an Yamaha 48 volt golf cart by installing a larger motor or more powerful batteries. This will produce more power to the wheels and more speed.
In terms of stopping a physics problem involving a shopping cart, it would be easier to stop a cart with a lower mass and slower velocity. This is because the stopping distance is directly related to the mass and velocity of the object. A lighter cart moving at a slower speed will be easier to stop compared to a heavier cart moving at a faster speed.
Max Speed 37-39 mph... that's pretty fast for a go-cart.
Cart experiences a change in velocity(which is a vector quantity, not like speed). Cart's velocity on circular track has to be tangent to track at each point and because of that it has to change its direction. Speed may or not remain the same, you can't tell it changes in each possible case. Mass and weight remain the same.