Answer:
The filament inside the light bulb reaches over 3000 degree Celsius.
The temperature of the filament inside a working electric bulb can reach up to around 2,500 to 3,000 degrees Celsius. This high temperature is what allows the filament to emit light and heat up the surrounding area in an incandescent light bulb.
When the filament in a light bulb heats up, it emits light and heat energy. The filament is designed to reach a high temperature so that it glows and produces visible light. The heat generated is a byproduct of the light production process.
The coiled filament in a light bulb is designed to increase the surface area of the filament. This helps to maximize the amount of light produced while also allowing it to reach a high temperature quickly, which is necessary for creating light through incandescence.
The bulb gets brighter because the filament is getting hotter. If the filament's temperature gets too high it will melt at some point and fall apart. The current will stop flowing and the bulb will "blow".
When electrons reach the light bulb, they flow through the filament, generating heat and light. The heat causes the filament to glow and emit light. This process is known as incandescence, where the electrical energy is converted into heat and light energy.
The temperature of the filament inside a working electric bulb can reach up to around 2,500 to 3,000 degrees Celsius. This high temperature is what allows the filament to emit light and heat up the surrounding area in an incandescent light bulb.
When the filament in a light bulb heats up, it emits light and heat energy. The filament is designed to reach a high temperature so that it glows and produces visible light. The heat generated is a byproduct of the light production process.
The coiled filament in a light bulb is designed to increase the surface area of the filament. This helps to maximize the amount of light produced while also allowing it to reach a high temperature quickly, which is necessary for creating light through incandescence.
The bulb gets brighter because the filament is getting hotter. If the filament's temperature gets too high it will melt at some point and fall apart. The current will stop flowing and the bulb will "blow".
The coating inside a regular incandescent light bulb is made of tungsten. This coating is what emits light when an electric current passes through it, heating up the tungsten filament to produce light.
When electrons reach the light bulb, they flow through the filament, generating heat and light. The heat causes the filament to glow and emit light. This process is known as incandescence, where the electrical energy is converted into heat and light energy.
Filament gets heated when an electric current passes through it, causing resistance in the filament wire. The resistance converts electrical energy into heat energy, which then causes the filament to reach high temperatures and emit light.
Evacuating the globe clears ionic resistance from the path of the electron stream to allow a stronger vibratory flow in the plasma helix generating e-m waves that are relayed at light speeds through the surrounding, aethereal plenum.
An electric current passes through a thin filament, heating it until it produces light. The enclosing glass bulb prevents the oxygen in air from reaching the hot filament, which otherwise would be destroyed rapidly by oxidation.
Tungsten filament bulbs are preferred in Stefan's law experiments because they can reach high temperatures without melting, allowing for accurate measurements of the bulb’s temperature. The filament emits a continuous spectrum of light, which is essential for accurately measuring the radiation emitted by a blackbody. Additionally, tungsten has a high melting point, making it suitable for use in high-temperature environments during the experiment.
Incandescent light bulbs use tungsten( a metal which can withstand very high temperatures) as filament.When heated to a very high temperature, the filament glows emitting light and heat. Heating effect in filaments is caused by the property of resistance in conductors. On reducing the cross- section area( thickness) of the filament, its resistance is increased and hence the filament glows with comparitively lesser electric current.
Bulb filament can reach temperature from 3410 degrees Celsius to 6300 degrees Celsius. No it can't. I think you're totally mistaken about how hot a filament can get. First of all, the temperature of a filament can't go above it's melting point. Secondly, I read that Tantulum Hafnium Carbide has the highest melting point of any known substance at 4215 degrees C. Besides, bulbs have a tungsten filament which has a melting point of 3422 C. It's slightly possible that for some bulbs, they mix tungsten with something else to raise the melting point but since nothing has a higher melting point than Tantulum Hafnium Carbide, the filament can't possibly get hotter than 4215 C by being 6300 C.