If the length of an activity is greater than 150 seconds, the aerobic energy system is predominantly used. This system relies on oxygen to produce energy through the breakdown of carbohydrates and fats, allowing for sustained efforts over longer durations. It is essential for activities like long-distance running, cycling, and swimming.
If the length of an activity is greater than 150 seconds, the predominant energy system used is the aerobic energy system. This system relies on oxygen to produce ATP (adenosine triphosphate) for sustained energy output during prolonged activities. It is efficient for activities like running, swimming, or cycling at moderate intensities, where energy demands exceed the capacity of anaerobic systems.
If the length of an activity exceeds 150 seconds, the aerobic energy system becomes the predominant source of energy. This system relies on oxygen to produce ATP through the breakdown of carbohydrates and fats, allowing for sustained, lower-intensity activities. In contrast, shorter, high-intensity efforts primarily utilize the anaerobic energy systems, which do not require oxygen but can only sustain energy production for shorter durations. Thus, for activities lasting longer than 150 seconds, aerobic metabolism is crucial for continued performance.
If the length of an activity exceeds 150 seconds, the body primarily relies on the aerobic energy system. This system uses oxygen to convert carbohydrates and fats into energy, supporting prolonged, moderate-intensity activities. While the ATP-PC and anaerobic glycolysis systems contribute in the initial phase, the aerobic system becomes dominant as the activity continues beyond two and a half minutes.
Power is calculated as energy consumed per unit time. If a bulb uses 3 joules of energy every 10 seconds, its power can be calculated using the formula: Power (in watts) = Energy (in joules) / Time (in seconds). Therefore, the power of the bulb is 3 joules / 10 seconds = 0.3 watts.
Efficiency cannot be greater than 100% because efficiency measures energy, and since energy is not made, only transfered (conservation of energy) then we cannot gain energy. Hence the energy out must be at most the energy in. Thus efficiency can be at most 100%
If an activity's duration exceeds 150 seconds, aerobic energy is predominantly utilized. This type of energy production relies on oxygen and is sustainable for longer durations compared to anaerobic energy systems.
If the length of an activity is greater than 150 seconds, the predominant energy system used is the aerobic energy system. This system relies on oxygen to produce ATP (adenosine triphosphate) for sustained energy output during prolonged activities. It is efficient for activities like running, swimming, or cycling at moderate intensities, where energy demands exceed the capacity of anaerobic systems.
If the length of an activity exceeds 150 seconds, the body primarily relies on the aerobic energy system. This system uses oxygen to convert carbohydrates and fats into energy, supporting prolonged, moderate-intensity activities. While the ATP-PC and anaerobic glycolysis systems contribute in the initial phase, the aerobic system becomes dominant as the activity continues beyond two and a half minutes.
III, IV, and V
Thermal Energy.
The instantaneous energy system, also known as the immediate energy system or phosphagen system, is primarily used for short-duration, high-intensity activities lasting around 10 seconds. This system relies on stored ATP and creatine phosphate to provide rapid energy for explosive movements.
The one with the greater velocity will have the greater kinetic energy.
What is the predominantly used energy system in Australian rules football game
The kinetic type does.
Potential energy is determined by the mass of an object and its distance from the ground. Therefore, the skydiver with greater mass will have greater potential energy when they are the same distance from the ground.
Developed
Not necessarily. The mechanical energy of an object depends on both its mass and its velocity. While a larger mass can contribute to greater mechanical energy, a faster-moving object with smaller mass could have greater mechanical energy.