More force because there is more mass:)
It would generally require around 4,000 pounds per square inch (psi) of force to crush an empty pop can. This force is needed to overcome the structural integrity of the can and compress it.
I would expect an object with a large mass to require the most force to move because more force is needed to overcome the inertia of the object.
They usually require an involved selection process. When purchasing a shopping product, consumers will compare a variety of attributes, such as suitability, quality, price, and style.
No. It doesn't work in the Gucci store...hehehe
A pulley system with a mechanical advantage of 4 would require the least amount of effort force to lift a load. This means that for every 4 units of load force, only 1 unit of effort force is needed.
The object with the most mass will require the most force to move. This is because force is directly proportional to an object's mass: the greater the mass, the more force is needed to move it.
The work done pushing the shopping cart would be 8800 Joules, calculated as force (88N) times distance (100m). Work is the product of force applied in the direction of motion and the distance over which it is applied.
Ignoring friction and air resistance, it would require a force of 30 Newtons.
A longer lever would require less force to lift the load but would move the hand a longer distance. On the other hand, a shorter lever would require more force to lift the load but would move the hand a shorter distance.
No, the horizontal component of a force is directly related to the magnitude of the force. Increasing the horizontal component of the force would require increasing the magnitude of the force itself.
The force required to push a 5-gallon bucket underwater would depend on the buoyancy force exerted by the volume of water displaced by the bucket. This force would be equal to the weight of the water displaced, which can be calculated based on the density of water (about 62.4 pounds per cubic foot). Therefore, you would need a force greater than the buoyancy force to push the bucket underwater.
Increasing the mass of the wooden block would require more force to pull it up the ramp compared to increasing the steepness of the ramp. This is because the force required to lift an object is directly proportional to its mass, while the force required to lift an object up a ramp is determined by the component of the gravitational force acting perpendicular to the ramp.