When a match is struck, mechanical energy is converted into heat energy. Friction between the match head and the striking surface generates enough heat to ignite the chemicals in the match head, leading to a chemical reaction that produces a flame.
When a match is struck against the side of a matchbox and bursts into flames, the energy transformation that takes place is from mechanical energy (friction between the match and the matchbox) to heat energy. The friction generates enough heat to ignite the match head, causing it to catch fire and release energy in the form of light and heat.
When a match is struck against the side of a matchbox, mechanical energy is converted into thermal energy due to friction. The heat generated from the friction causes the match head to ignite and start the chemical reaction, releasing more energy in the form of light and heat.
Friction between the match head and the rough surface of the matchbox causes the match head to heat up, converting mechanical energy into thermal energy. This increase in temperature eventually ignites the match head, producing light and heat energy in the form of a flame.
Initially the plain old match stick is heated by frictional forces as the match is struck. This heat ignited the compound on the match head with the required temperature of ignition is reached. The heat transfer process is conduction. The lit match emits heat energy by radiation. It also will produce heating of the air by conduction and convection.
When you light a match, the energy transformation that occurs is chemical energy being converted into thermal energy (heat) through a combustion reaction. The heat generated is sufficient to ignite the match head, causing it to burn and produce light.
When a match is struck against the side of a matchbox and bursts into flames, the energy transformation that takes place is from mechanical energy (friction between the match and the matchbox) to heat energy. The friction generates enough heat to ignite the match head, causing it to catch fire and release energy in the form of light and heat.
When a match is struck against the side of a matchbox, mechanical energy is converted into thermal energy due to friction. The heat generated from the friction causes the match head to ignite and start the chemical reaction, releasing more energy in the form of light and heat.
Friction between the match head and the rough surface of the matchbox causes the match head to heat up, converting mechanical energy into thermal energy. This increase in temperature eventually ignites the match head, producing light and heat energy in the form of a flame.
The activation energy in the chemical reaction of lighting a match is supplied by the heat generated when the match is struck against the striking surface. This heat is enough to break the chemical bonds in the match head, leading to combustion and the release of energy in the form of light and heat.
The mechanical energy used to strike a match is transformed first to thermal energy. The thermal energy causes the particles in the match to release stored chemical energy, which is transformed to thermal energy and the electromagnetic energy you see as light.
The energy in an unburned match comes from the potential energy stored in the chemical bonds of the match head or the striking surface. This potential energy is released in the form of heat and light when the match is ignited and the chemical reaction takes place.
Initially the plain old match stick is heated by frictional forces as the match is struck. This heat ignited the compound on the match head with the required temperature of ignition is reached. The heat transfer process is conduction. The lit match emits heat energy by radiation. It also will produce heating of the air by conduction and convection.
When you light a match, the energy transformation that occurs is chemical energy being converted into thermal energy (heat) through a combustion reaction. The heat generated is sufficient to ignite the match head, causing it to burn and produce light.
Kinetic Energy takes place, due to the fact you apply energy to the scissors.
electronic energy.
A form of energy can't 'take place'. An energy changetakes place, in this case from electrical energy to light.
makes energy