To determine the wire size needed for a 100 amp load 250 feet away, you will need to consider the voltage and allow for voltage drop. For a 100 amp load at 120V over 250 feet, you would need a wire size of at least 1/0 AWG. It's recommended to consult with a licensed electrician to ensure proper wire size for your specific situation.
The main piece of information needed is the load wattage or amperage that will be connected to the power supply. Once this is known the power supply of a greater size that the load should be chosen. Also with this information the size of the wires can be calculated from the power supply to the load. Too small a wire will create a voltage drop at the load end of the circuit. This will cause under performance of the load.
For a 30 amp load at 12 volts DC over a distance of 34 feet, a wire size of at least AWG 8 would be recommended to minimize voltage drop and ensure efficient power delivery. It is important to consult with local electrical codes and standards to ensure compliance with regulations.
AWG # 10 wire on 30 amp circuit.
The wire size needed for a 180' run depends on the voltage, current, and type of installation. It is recommended to consult the National Electrical Code (NEC) and a professional electrician to determine the appropriate wire size to ensure safety and compliance with regulations.
The size of the generator is based on the size of the load you want to supply. Size up the load in watts or amps along with what phase (single or three) and voltage that the load requires. These are needed to give a complete answer.
To determine the wire size needed for a 100 amp load 250 feet away, you will need to consider the voltage and allow for voltage drop. For a 100 amp load at 120V over 250 feet, you would need a wire size of at least 1/0 AWG. It's recommended to consult with a licensed electrician to ensure proper wire size for your specific situation.
The main piece of information needed is the load wattage or amperage that will be connected to the power supply. Once this is known the power supply of a greater size that the load should be chosen. Also with this information the size of the wires can be calculated from the power supply to the load. Too small a wire will create a voltage drop at the load end of the circuit. This will cause under performance of the load.
That question cannot be answered without knowing the load on the beam.
A DLH will work.
38 feet longIt is not possible to give a definite answer without more detail. The construction and type of roof will determine the load (weight) bearing on the beam, and factors such as wind load and earthquake load, and the way the roof bears on the beam (truss/point load/distributed load) will all affect the sizing.
38 feet longIt is not possible to give a definite answer without more detail. The construction and type of roof will determine the load (weight) bearing on the beam, and factors such as wind load and earthquake load, and the way the roof bears on the beam (truss/point load/distributed load) will all affect the sizing.
The number of pulleys required to lift a load depends on the mechanical advantage needed. For a simple pulley system with no mechanical advantage, one pulley is needed. By adding more pulleys in a block and tackle system, you can increase the mechanical advantage and reduce the effort required to lift the load.
To answer this question the size of the cable or the amperage of the load is needed to calculate the correct wire size and connectors to fit the cable.
The size of conduit is based on the size of the wires in it. The size of the wires depends on the load connected in the house. Without these other two values an answer can not be given.
To reduce the effort needed to overcome a load on a wheel and axle, you can either increase the size of the wheel or decrease the size of the axle. This will increase the mechanical advantage, making it easier to lift the load with less effort. Additionally, reducing friction between the wheel and axle can also help reduce the effort needed.
For a 30 amp load at 12 volts DC over a distance of 34 feet, a wire size of at least AWG 8 would be recommended to minimize voltage drop and ensure efficient power delivery. It is important to consult with local electrical codes and standards to ensure compliance with regulations.