The UK wire tables for 1.0 mm2 three-core domestic cable (live/neutral/earth) specify a limit of 10 amps.
30 amps
1 sq..mm have max. capacity is 10 ampere if these are of copper approximately than 120 sq..mm having current carrying capacity is 1200 ampere
The bulb with the lowest resistance. Current = Volts / Resistance
To calculate the size of cable for a 1000kW generator, you need to consider the generator's voltage and the distance the cable will run. You will need to calculate the current the generator will draw at full load using the formula: Current (A) = Power (W) / (Voltage (V) x Power Factor). Once you have the current value, you can use it to determine the appropriate cable size based on the current carrying capacity of different cable types, factoring in voltage drop considerations for the distance the cable will run.
The current rating of a 1.5 sqmm PVC insulated copper wire depends on various factors such as the ambient temperature, installation method, and voltage. As a general guideline, for household wiring at standard conditions, a 1.5 sqmm PVC insulated copper wire can typically carry around 10-15 amps of current. It is always recommended to consult local electrical codes and guidelines for specific applications.
Cross section area =60x10=600Sqmm For copper we can utilised 2 amps per sqmm hence we can load upto 1200 amps easily.
The maximum current capacity for a 10 wire amp rating is typically around 30 amps.
AS PER THUMB RULE THE CURRENT CARRYING CAPACITY OF WIRE IS 4 TIMES OF ITS CROSSECTIONAL AREA OF WIRE i.e. 10 sq.mm wire carrying maximum current 40 amp , 16 sq.mm carrying maximum current 64 amp , now amp convert in watt by multiplying by volt i.e. 240 16 sq.mm carrying max load 64x240= 15360 watt
The UK wire tables for 1.0 mm2 three-core domestic cable (live/neutral/earth) specify a limit of 10 amps.
30 amps
The current maximum length for a serial cable is around 50 meters. Different cables have length limits with the maximum varying.
Wire sizes and ampacity are regulated by code. # 14 wire 15 amps, #12 wire 20 amps, #10 wire 30 amps, #8 wire 40 amps, #6 wire 60 amps. These are the most common, a slight variation in amperage depending on the insulation factor.
Depends on size, model, year and capacity... Could be $10, Could be $9,000,000 More clarification required.
Measure the width and thickness of the strip. Multiply them together to find the cross-section area, and treat it as normal wire of the same cross-section area. For example, 10 mm x 1 mm strip would be used like 10 sq. mm cable.
A thinner cable I am taking to mean less conductive material. There is a limit to the current carrying capacity of any circuit, so using a smaller cable will lower this current carrying capacity. In general, thinner cable will also have higher resistivity than thicker cable.In house wiring, this could mean sizing down your circuit breakers to the appropriate level - perhaps 10 amps instead of 15 or 20.In CT circuits, this would mean higher voltage rise on the secondary side, possibly causing CT saturation.For Long feeds (say, between a house and a barn, 1/4 mile away, on relatively small guage wire), this could mean a significant voltage drop before you reach your load (where you wish to use the electricity).
1 sq..mm have max. capacity is 10 ampere if these are of copper approximately than 120 sq..mm having current carrying capacity is 1200 ampere