Power = Volts x Amps. Hence 1kW is irrelevant of voltage.
240V baseboard heaters are usually more efficient than 120V baseboard heaters in terms of energy consumption because they require less current to produce the same amount of heat. This can result in lower heating costs. However, the actual efficiency also depends on the insulation of the room and the overall heating system.
You have to be careful here. A heater will be advertised as "X" watts, but that is only true if you connect it to the voltage source it is supposed to be connected to. If you plug it into a higher or lower voltage source than intended, it will produce a different number of watts.Electric heaters are just resistors. When you run electricity through them, they get hot. If you run more electricity through that resistor, it will produce more heat. If you run less electricity through it, it will produce less heat.As an example, you can find "1500W/120V" water heater elements at the hardware store. This means that if you plug it into a 120V source, it will produce 1500W of heat, and it will pull 1500W/120V = 12.5A of current.You can calculate the resistance of the heater by taking voltage times voltage divided by watts, so this "1500W/120V" heater is really just a resistor of this many Ohms:120V * 120V / 1500W = 9.6 OhmThat Ohm value is physical property of the device. It will not change. If you were to take this heater now and plug it into a 240V supply, you can calculate the amps with voltage divided by resistance:240V / 9.6 Ohm = 25 AmpsAnd, for watts, you can take voltage times voltage divided by ohms:240V * 240V / 9.6 Ohm = 6000WSorry for the long text, but it's crucial that you understand this.If your heater is 1500W and is INTENDED to be running on 240V, you have a 38.4 Ohm resistor. Running that resistor at the lower 208V will produce only 1126W of heat and will pull just 5.4 Amps of current.However, if your heater is 1500W and is indented to be running on 120V, then you have a 9.6 Ohm resistor. You will almost certainly start a fire if you plug it into a 208V supply, because you will be pulling close to 22 Amps and producing 4500W of heat.
12v bulbs are typically more cost-effective to run compared to 240v bulbs because they consume less electricity. This is because 12v bulbs have lower wattage ratings and are more energy-efficient. Additionally, 12v systems may also have lower installation costs and require smaller wiring sizes, resulting in overall savings.
It actually depends on how much you you it so If you use it a lot it's gonna cost a lot and if you use it less it's gonna cost less
Yes, if your electrical appliance is designed to operate at 240V but is receiving 300V, it will consume more power than intended, leading to an increase in your electricity bill. The higher voltage can cause the appliance to operate less efficiently and consume more energy. It is advisable to ensure that your appliances receive the correct voltage to avoid unnecessary energy consumption.
For the most part, they cost about the same. For instance, if you look up a 120V, 2hp electric motor in a catalog, you will find it draws about 18A. 120V * 18A = 2160 watts. If you look up a 240V, 2hp motor, it will draw about 9A. 240V * 9A = 2160 watts. Watts are watts. Watts are what you pay for. It takes a certain amount of power to perform a particular task, irregardless of the voltage supply. You typically see larger loads, such as a dryer, range or AC unit fed from 240V. This is because the lower current draw permits you to run smaller wire, which is less expensive to install.
240V baseboard heaters are usually more efficient than 120V baseboard heaters in terms of energy consumption because they require less current to produce the same amount of heat. This can result in lower heating costs. However, the actual efficiency also depends on the insulation of the room and the overall heating system.
You have to be careful here. A heater will be advertised as "X" watts, but that is only true if you connect it to the voltage source it is supposed to be connected to. If you plug it into a higher or lower voltage source than intended, it will produce a different number of watts.Electric heaters are just resistors. When you run electricity through them, they get hot. If you run more electricity through that resistor, it will produce more heat. If you run less electricity through it, it will produce less heat.As an example, you can find "1500W/120V" water heater elements at the hardware store. This means that if you plug it into a 120V source, it will produce 1500W of heat, and it will pull 1500W/120V = 12.5A of current.You can calculate the resistance of the heater by taking voltage times voltage divided by watts, so this "1500W/120V" heater is really just a resistor of this many Ohms:120V * 120V / 1500W = 9.6 OhmThat Ohm value is physical property of the device. It will not change. If you were to take this heater now and plug it into a 240V supply, you can calculate the amps with voltage divided by resistance:240V / 9.6 Ohm = 25 AmpsAnd, for watts, you can take voltage times voltage divided by ohms:240V * 240V / 9.6 Ohm = 6000WSorry for the long text, but it's crucial that you understand this.If your heater is 1500W and is INTENDED to be running on 240V, you have a 38.4 Ohm resistor. Running that resistor at the lower 208V will produce only 1126W of heat and will pull just 5.4 Amps of current.However, if your heater is 1500W and is indented to be running on 120V, then you have a 9.6 Ohm resistor. You will almost certainly start a fire if you plug it into a 208V supply, because you will be pulling close to 22 Amps and producing 4500W of heat.
Less then regular electricity.
12v bulbs are typically more cost-effective to run compared to 240v bulbs because they consume less electricity. This is because 12v bulbs have lower wattage ratings and are more energy-efficient. Additionally, 12v systems may also have lower installation costs and require smaller wiring sizes, resulting in overall savings.
The burners will most likely be 240V. By keeping the range at 240 volts it will use less amps that at 120V. Say a range and oven is rated at 9000 watts. Watts = amps x volts. 9000/240V = 37.5 amps. 9000/120V = 75 amps. As you can see at 120 volts the amperage is double over 240 volts. You would need a 100 amp breaker and #4 wire to accomodate the range on 120 volts.
Cost per unit of electricity depends the type of generation used. ie:- thermal hydel, nuclear etc. hydel electricity is cheaper and now a days it cost less than Rs.10 per unit in India. whereas thermal electricity cost less than Rs. 20 per unit
It actually depends on how much you you it so If you use it a lot it's gonna cost a lot and if you use it less it's gonna cost less
It depends upon what voltage pushes the current. Thousands of volts can push for miles. 120v common household current can only travel about 1000 feet or less.
Yes, if your electrical appliance is designed to operate at 240V but is receiving 300V, it will consume more power than intended, leading to an increase in your electricity bill. The higher voltage can cause the appliance to operate less efficiently and consume more energy. It is advisable to ensure that your appliances receive the correct voltage to avoid unnecessary energy consumption.
Saving its cost is purely a matter for you and your household finances. Saving electricity - or properly, using less - reduces the demands on the generators hence fuel used.
Because they are not high and they cost a lot of electricity