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When riding a bike, the energy transformations involve converting chemical energy from food into mechanical energy to pedal the bike, which is then transformed into kinetic energy to move the bike forward. Additionally, some of the mechanical energy is lost as heat due to friction between moving parts.
When you eat a hamburger, your body converts the chemical energy in the food into mechanical energy to fuel your movements. When you ride your bike, your muscles convert that stored chemical energy into mechanical energy to propel the bike forward. Overall, the energy transformations involve chemical energy from the food being converted to mechanical energy for movement.
When riding a bicycle, chemical energy from your body is converted into mechanical energy to pedal the bike. This mechanical energy is then transformed into kinetic energy as the bike moves forward. Additionally, some energy is lost to friction and air resistance, dissipating as heat energy.
It goes from chemical to kinetic.
A bike travels faster when going downhill due to the force of gravity pulling it downwards, providing additional kinetic energy. When going uphill, the force of gravity acts against the bike's forward motion, requiring more energy input to overcome gravity and maintain speed.
When riding a bike, the energy transformations involve converting chemical energy from food into mechanical energy to pedal the bike, which is then transformed into kinetic energy to move the bike forward. Additionally, some of the mechanical energy is lost as heat due to friction between moving parts.
When you eat a hamburger, your body converts the chemical energy in the food into mechanical energy to fuel your movements. When you ride your bike, your muscles convert that stored chemical energy into mechanical energy to propel the bike forward. Overall, the energy transformations involve chemical energy from the food being converted to mechanical energy for movement.
First it's chemical energy from eaten food that turns into heat, a little bit of kinetic energy and potential energy(pushing the bike uphill). Then it's potential energy turning into kinetic energy and a little bit of heat, along with some further chemical energy being used up.(coasting down)
When riding a bicycle, chemical energy from your body is converted into mechanical energy to pedal the bike. This mechanical energy is then transformed into kinetic energy as the bike moves forward. Additionally, some energy is lost to friction and air resistance, dissipating as heat energy.
It goes from chemical to kinetic.
A bike travels faster when going downhill due to the force of gravity pulling it downwards, providing additional kinetic energy. When going uphill, the force of gravity acts against the bike's forward motion, requiring more energy input to overcome gravity and maintain speed.
When going uphill on a bike, it is recommended to use a lower gear to make pedaling easier. This will help you maintain a steady pace and conserve energy.
A bike does not get energy from the sun. A bike takes kinetic energy from you and makes it into a proportional amount of kinetic energy depending on what gear you are on.
The energy associated with a moving bike is kinetic energy, which is the energy of motion. As the pedals rotate and the wheels turn, the bike gains kinetic energy due to its motion.
When riding a bike, the chemical energy stored in your body from food is converted into kinetic energy as you pedal the bike and move forward. This kinetic energy is then used to overcome frictional forces and propel the bike forward.
Not after riding a bike, but rather during riding a bike. Your muscles convert chemical energy (a form of potential energy) into mechanical energy to do work.
A bike is considered a device that can convert energy because it allows a person to convert the energy from pedaling into kinetic energy to move the bike. As the pedals turn, the mechanical energy provided by the person is transferred to the wheels, propelling the bike forward.