okay the pompeii worm is most heat-tolerant
The wire in the cord has much lower resistance than the heating element. The heating element is a resistive or resistance heating element. Resistance in the quality of a substance or material that causes it to limit current flow, and it get heated up in the process. The heating element has all but the smallest fraction of the resistance in the circuit, so the heat, that thermal energy that get the water hot, is generated by the resistance of the heating element.
Because Heat is Directly Proportional to Resistance Of ElementAnswerPower is inversely, not directly, proportional to the resistance of a heating element.So, the higher the resistance, the lower the heating effect. For example, a 'high-wattage' lamp has a lower resistance than a 'low-wattage' lamp.This is because power is equal to the voltage squared divided by resistance; so, the lower the resistance, the more powerful (and, therefore, the hotter) the heating element.
The wire in the cord has much lower resistance than the heating element. The heating element is a resistive or resistance heating element. Resistance in the quality of a substance or material that causes it to limit current flow, and it get heated up in the process. The heating element has all but the smallest fraction of the resistance in the circuit, so the heat, that thermal energy that get the water hot, is generated by the resistance of the heating element.
An electric iron has a heating element that offers electrical resistance. The resistance causes friction to occur in the electrons and causes a heating effect.
An electric iron has a heating element that offers electrical resistance. The resistance causes friction to occur in the electrons and causes a heating effect.
An electric iron has a heating element that offers electrical resistance. The resistance causes friction to occur in the electrons and causes a heating effect.
An electric iron has a heating element that offers electrical resistance. The resistance causes friction to occur in the electrons and causes a heating effect.
For Heating purposes, lighting purposes
The Ohmic heating equation describes how electrical resistance generates heat when current flows through a material. It relates to the process of heating materials by showing how the amount of heat produced is directly proportional to the electrical resistance and the square of the current passing through the material. This relationship helps in understanding and controlling the heating process in various applications, such as in electric stoves or industrial heating systems.
The formula you are looking for is W = E(squared)/R, W = Voltage (squared) divided by Resistance.
The heating element may not be defective. It may have too much designed resistance for the electricity to flow through it. Heating elements are resistive heating, that is it converts electrical energy (not entirely) to heat as heat is a form of energy. Energy is neither created or destroyed but converted from one form to another. Anyway, the heating element may be of a rating outside of the gauge of wiring you are using or the heating element may be defective. You can confirm this by finding the designed resistance rating of the element and then test the element with a multimeter on the "resistance" setting and see if the measured resistance is on or near the designed resistance of the element.
The cord is manufactured to have as low a resistance as possible, while the heating element is intentionally manufactured with a carefully controlled resistance. The current through the whole loop ... cord plus heater ... is determined by the resistance of the whole loop. The magnitude of the current 'I' is (E/R) ... E = the utility line voltage, R = resistance of the cord+heater. But the power dissipated by each individual resistance in the loop is proportional to the resistance of that section. P = I2R. So the heating element dissipates more power than the low-resistance line-cord does.