1.732 is the square-root of three (and is often written that way in the relevant equations), and the relationship between a three-phase, four-wire, system's phase and line voltages. That is, the line voltage is 1.732 times greater than the phase voltage, and the line current is 1.732 times
A three-phase, four-wire, system is provided by, for example, a transformer, whose secondary windings are connected in a consideration called 'star' or 'wye'. This configuration provides four conductors: three 'line conductors' and one 'neutral conductor'. The voltage measured between any pair of line conductors is called a 'line voltage', while a voltage measured between any one line conductor and the neutral conductor is called a 'phase voltage'. The relationship between these voltages is:
VL = 1.732 x VP
There is a similar relationship for the currents flowing through a 'delta' (or 'mesh') load -provided the load is balanced (i.e. each phase load is identical). That is, the line currents supplying that balanced load will be 1.732 times larger than the phase currents flowing through the individual loads.
The formula for polyvinyl chloride (PVC), commonly used for wire insulation, is (C2H3Cl)n, where "n" indicates the number of repeating units in the polymer chain. PVC is made through the polymerization of vinyl chloride monomers (C2H3Cl). It is valued for its durability, chemical resistance, and electrical insulation properties, making it a popular choice for electrical wiring applications.
To convert BTUs (British Thermal Units) to electrical current, you first need to convert BTUs to energy in joules, as 1 BTU is approximately 1,055 joules. Then, to find the equivalent electrical current, you use the formula ( P = IV ), where ( P ) is power in watts (joules per second), ( I ) is current in amperes, and ( V ) is voltage in volts. By rearranging the formula to ( I = \frac{P}{V} ), you can calculate the current based on the power derived from the BTU conversion and the voltage of your electrical system.
To find the efficiency of an electrical device, you can use the formula: Efficiency (%) = (Output Power / Input Power) × 100. Measure the input power, typically in watts, that the device consumes and the useful output power it provides. Efficiency indicates how well the device converts electrical energy into useful work, with higher percentages indicating better performance.
Electrical symbols are used in electrical wiring diagram, signage on the electrical devices and motors
The amount of heat generated by electrical home appliances can be calculated using the formula: Heat (in watts) = Power (in watts) × Time (in hours). First, determine the power rating of the appliance, usually found on the label or in the manual. Multiply this power rating by the duration the appliance is used to find the total energy consumed, which can be converted to heat energy since most electrical energy converts to heat in resistive appliances.
173mm is 6.81102 inches. Direct Conversion Formula 173 mm* 1 in 25.4 mm = 6.811023622 in
The formula for calculating resistance in an electrical circuit is R V/I, where R is the resistance, V is the voltage, and I is the current.
14% of 173 = 14% * 173 = 0.14 * 173 = 24.22
-173ºC = -279.4ºFUse this formula to convert degrees Celsius (C) to degrees Fahrenheit (F): (C x 1.8) + 32 = F
Select any non-zero integer D and let N = -173*D.Then the quotient N/D = -173*D/D = -173.
The formula for calculating the maximum voltage in an electrical circuit is V I R, where V is the voltage, I is the current, and R is the resistance.
1 and 173
173 is a prime number. Its only positive integer factors are itself and 1.173 is a prime so the only integer answer to the question is 1 * 173 = 173
No - the only positive integer factors of 173 are 1 and 173.
1.73 = 1.73
173 = CLXXIII
173