Answer:
When a bicycle is moving upward a force is acting called friction which pulls the rider backward making it harder for the rider to move forward. When the rider is at a constant speed the forces are balanced (the same), when the bicycle is speeding up(accelerating) the forces are unbalanced.The force acting forward is greater. When the bicycle is slowing down the forces going upward and downward are the same, however the force acting backward is greater. The forces are unbalanced when slowing down. When at rest the forces are also balanced. So, overall , the only times when the force's are balanced is when they are either at a constant speed or at rest. The times when the forces that are unbalanced are when the bicycle is slowing down or speeding up.Generally, it is gravity that holds you down, some wind resistance depending on the clothing you wear (as baggy clothes can increase drag) this is why professional cyclists wear those dodgy suits.Yes, gravity acts on a moving bicycle. Gravity pulls the bicycle and the rider toward the center of the Earth, influencing their motion. This force helps to keep the bicycle in contact with the ground and affects its acceleration and speed.
The amount of force pushing two surfaces together directly affects the magnitude of friction between them. More force increases the contact between surfaces, creating a greater frictional force. Conversely, less force reduces the frictional force between the surfaces.
The force that makes a bicycle move forward is generated by the rider pushing the pedals, which rotates the chain connected to the wheels. This rotational force is transmitted to the wheels, causing them to turn and propel the bicycle forward. friction between the tires and the ground helps to convert this rotational force into linear motion.
Friction between the brake pads and the wheel rim or disc generates the force that slows down a bicycle when the brakes are applied. This friction converts the kinetic energy of the moving bicycle into heat, causing it to decelerate.
The force that affects only objects with magnetic domains is the magnetic force. This force arises from the interactions between the magnetic fields of objects with magnetic domains and can attract or repel objects with magnetic properties.
Yes, gravity acts on a moving bicycle. Gravity pulls the bicycle and the rider toward the center of the Earth, influencing their motion. This force helps to keep the bicycle in contact with the ground and affects its acceleration and speed.
What the brake lever does is that it use the action of the rider pulling on the lever into a force that can be used to slow the wheel(s) down by generating friction.
Because the size of the piston is rather small, so it doesn't take much force to generate the kind of pressures that bicycles need.
the magnetic force between the sun and the moon to the earth
The amount of force pushing two surfaces together directly affects the magnitude of friction between them. More force increases the contact between surfaces, creating a greater frictional force. Conversely, less force reduces the frictional force between the surfaces.
The force that makes a bicycle move forward is generated by the rider pushing the pedals, which rotates the chain connected to the wheels. This rotational force is transmitted to the wheels, causing them to turn and propel the bicycle forward. friction between the tires and the ground helps to convert this rotational force into linear motion.
Friction between the brake pads and the wheel rim or disc generates the force that slows down a bicycle when the brakes are applied. This friction converts the kinetic energy of the moving bicycle into heat, causing it to decelerate.
A bicycle crank puller tool is used to remove the crank arms from a bicycle's bottom bracket spindle. The tool is designed to thread into the crank arm and then, by turning it, it applies force to pull the crank arm off the spindle. This tool is essential for maintenance and repair of bicycles as it allows for the removal of the crank arms without damaging the components.
A bicycle alone only use up space. But a human riding a bicycle will have to use force to get the bicycle to do anything, by pushing on the pedals, pulling on the handlebar ASO.
The strong nuclear force is the force that affects changes of particles in the nucleus. It is responsible for holding protons and neutrons together in the nucleus, overcoming the repulsive electromagnetic force between positively charged protons.
The front chain ring on a bicycle is used to transfer power from the pedals to the rear wheel through the chain. It affects the gear ratio by determining how many teeth are engaged with the chain, which in turn affects how much force is required to pedal and how fast the bike can go.
A slight push on the axle of a bicycle wheel does not cause motion because the force is typically insufficient to overcome the inertia of the wheel and the bicycle itself. Additionally, the wheel's rotational inertia plays a significant role; pushing at the axle does not create a torque sufficient to initiate rotation. The friction between the tires and the ground also resists any movement. Therefore, without sufficient force or torque, the wheel remains stationary.