well...depends on what the person is doing. The average person burns about 2000 calories a day. That can be calculated out into any number of things. If you want raw power output data about a specific task you would simply use a horsepower formula (550 ft·lbf/s) because:
1 hp ≡ 33,000 ft·lbf/min by definition
= 550 ft·lbf/s since 1 min = 60 s
= 550 × 0.3048 × 0.45359237 m·kgf/s since 1 ft = 0.3048 m and
= 76.0402249068 kgf·m/s
1 lb = 0.45359237 kg
= 76.0402249068 × 9.80665 kg·m²/s³
g = 9.80665 m/s²
= 745.69987158227022 W since 1 W ≡ 1 J/s = 1 N·m/s = 1 (kg·m/s²)·(m/s)
Since horsepower has nothing to do with a horse, and a horse is typically rated at about 18 horsepower, and a human is roughly 1/10th the size of a horse, your cheap answer is that a typical human is about 2 horsepower.
output power/Rated power
int radius = 2; int output; radius = radius * 2; output = radius * Math.PI; Console.WriteLine(output);
You will need to calculate a capacitor at the output stage in order to prevent interaction with the networks connected after the output.
The efficiency of a device in electronics and electrical engineering is defined as useful power output divided by the total electrical power consumed. Scroll down to related links and look at "Electrical efficiency - Wikipedia".
Audio output frequency is that range of frequencies that can be heard. For humans, that is generally considered to be the range of 20Hz to 20kHz.
how calculate power gearbox output
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output power/Rated power
calculate power gearbox output
A bike power meter measures the power output of a cyclist by using strain gauges to detect the force applied to the pedals. This data is then combined with the speed of the cyclist to calculate power output in watts.
This calculation will give you the ratio, in decibels, between two power values. For example, you can calculate the difference in dB between two amplifiers with different power output specifications calculate in dB Power Ratio.
Bike power meters measure the power output of a cyclist by using strain gauges to detect the force applied to the pedals or crank arms. This data is then combined with the speed of the cyclist to calculate power output in watts.
Efficiency is output power divided by input power. You somehow have to measure, calculate, or estimate both; the details will vary depending on the type of energy input and energy output.
Electrical efficiency is calculated by dividing the useful output power (in watts) by the input power (in watts) and multiplying by 100 to get a percentage. The formula is: Efficiency = (Useful output power / Input power) * 100. The higher the percentage of efficiency, the more effective the electrical system is at converting input power into useful output power.
Output equals efficiency times input; in formula, Ot = Ef x In and so In = Ot/Ef. To calculate the original input, divide the output by the efficiency.
To calculate the output power in watts, multiply the voltage by the current. In this case, the output power would be 332,000 watts (415 volts x 800 amps = 332,000 watts).
Power is the rate at which work is done, given by the formula Power = Work / Time. To calculate the power output, we first need to calculate the work done by the boy, which is equal to the product of his weight, the height of the staircase, and the acceleration due to gravity. After calculating the work done, we can then divide it by the time taken to run up the stairs to find the power output.