This is to avoid energy losses in the connecting wires.
Depending on the length of the wire difference between the shot and long wire, in technical fact the bulb would be brighter if a shorter wire was used, but not that much brighter. Energy is used up as it travels along wires.
Heat
The resistance of a piece of wire changes with temperature. In a filament bulb the wire is heated to about 3000 degrees C so a large change in resistance can be expected. A 240 v 105 w halogen bulb has a cold resistance of 35 ohms, but when running its resistance is 549 ohms.
V = IR Voltage = Current * Resistance so 9 = 0.25 * R Hence R =36 Ohms
The filament is made of tungten and these 'wires' (filament) conduct electricity.
The flow of electricity through a light bulb connected to a battery with wires affects the brightness of the bulb. Factors that should be considered in this scenario include the voltage of the battery, the resistance of the wires, and the wattage rating of the light bulb. Increasing the voltage or wattage will make the bulb brighter, while increasing resistance will make it dimmer.
Simple parts of a circuit are switches, light bulb, battery and connecting wires.
Thicker or shorter wires will have lower resistance, allowing more current to flow and increasing the brightness of the bulb. Thinner or longer wires will have higher resistance, reducing current flow and dimming the bulb. Ultimately, the length and thickness of the wire will impact the overall electrical resistance in the circuit, affecting the brightness of the bulb.
Connecting light bulb is equivalent to connecting a resistance. If you have connected light bulb, there will be some voltage drop across it and your TV may not get sufficient voltage. However if resistance is not big enough, than it wont have any effect.
Inside a torch ther is a bulb a cell and a swith. with some wires connecting them. it is a simple series circuit.
The parts of a light bulb are the glass envelope, mixture of inert gases at a lower pressure, and a screw cap. Inside of the light bulb is the coiled tungsten filament, support wires, glass fuse enclosure, connecting wires, and the electrical contact.
A Light bulb uses glass for the casing, brass/aluminium for the screw or bayonet mount, tungsten for the filament, copper alloy for connecting wires and porcelain for insulation.
Typically, you find the bulb with the red tip and replace it with a regular bulb. The red tipped bulb is a flasher bulb. Unfortunately, not all flasher bulbs are marked with a red tip. In that case (assuming your lights are controlled by a flasher bulb and not some other method), you'll need to go through each bulb to find the bulb that doesn't look like the others. A regular bulb will have two connecting wires and a filament between them. The flasher bulb has an extra wire touching one of the connecting wires. I'd expect that the flasher bulb would be the first or last bulb on the string.
To create a current flow, you need a closed circuit that allows the movement of charged particles, such as electrons, and a potential difference across the circuit that drives the flow of these charged particles.
What needs to be complete is the circuit from the battery to the bulb, then the other wire from the bulb to the other side of the battery.If it is from an outlet rather than a battery, the circuit starts and finishes with the live and neutral pins at the outlet.
A high-resistance bulb typically has a thicker filament compared to a low-resistance bulb. The thicker filament in a high-resistance bulb can withstand the greater heat generated by the increased resistance, resulting in a longer lifespan for the bulb.
Think of this as two scenarios. First, we have one blub, one battery, and two wires in a closed circuit, and the bulb lights up. Next, think about what would happen if we added a couple more wires to the circuit. The bulb would still light up, just as brightly, meaning that the new wires are not increasing the amount of resistance. This means that the wires are not slowing down the flow of charges.