It is exothermic, since it evolves heat.
^^ according to my Chemistry teacher, it's exothermic and endothermic.
Endo draws heat from around it. Exo gives off heat. Example: Ice melting is a endothermic reaction. A match lighting is an exothermic reaction.An exothermic reaction releases heat to it's surroundings. The change in energy is negative. An example is combustion of natural gas.An endothermic reaction absorbs heat, so the temperature of the surroundings drops. The energy is positive. An example is melting ice cubes.
Striking a match is an exothermic process because it releases heat and light energy as the match ignites. The friction created when striking the matchstick generates enough heat to ignite the chemicals on the match head, leading to a chemical reaction that releases energy in the form of heat and light.
Photosynthesis in plants, digestion in our own bodies, decay of any biological matter from plants to dead animals. There's also oxidation of various materials exposed to the atmosphere, from paint on cars getting hazy to metals corroding. Also less natural things like the chemical reactions in the batteries of our various electonic devices.
The observation that heat is evolved when a match burns is a phenomenon or observation. It can be explained by the theory of combustion, which describes the chemical reaction between the match and air that releases energy in the form of heat and light.
the balanced equation for the lighting of a match is: 16KCl3 + 3P4S3 --> 16 KCl + 9SO2 I'm pretty sure that's it:) this equation is wrong, you started off with phosphorous, but you did not have phosphorous in the result of the chemical reaction. Therefore, no such reaction can exist
yes burning a match is an examle of very fast reaction
Striking a match is an example of an endothermic reaction. It is also an example of simple combustion and a chemical reaction.
Burning a match is an exothermic change because energy is being released.
Exothermic because the fire or spark created by striking the match is releasing energy
Endo draws heat from around it. Exo gives off heat. Example: Ice melting is a endothermic reaction. A match lighting is an exothermic reaction.An exothermic reaction releases heat to it's surroundings. The change in energy is negative. An example is combustion of natural gas.An endothermic reaction absorbs heat, so the temperature of the surroundings drops. The energy is positive. An example is melting ice cubes.
Striking a match is an exothermic process because it releases heat and light energy as the match ignites. The friction created when striking the matchstick generates enough heat to ignite the chemicals on the match head, leading to a chemical reaction that releases energy in the form of heat and light.
Striking a match is an example of an endothermic reaction. It is also an example of simple combustion and a chemical reaction.
Endothermic reactions require energy in the form of heat to proceed, as they absorb heat from their surroundings to drive the chemical reaction forward. This heat input is necessary to break the existing bonds in the reactants, allowing new bonds to form and the reaction to reach completion.
Photosynthesis in plants, digestion in our own bodies, decay of any biological matter from plants to dead animals. There's also oxidation of various materials exposed to the atmosphere, from paint on cars getting hazy to metals corroding. Also less natural things like the chemical reactions in the batteries of our various electonic devices.
lightning is a match physical
Rubbing the match head on a rough surface creates friction, which generates heat. This heat is essential for initiating the reaction between the match head's chemicals (such as potassium chlorate and red phosphorus) and the sulfur present in the matchstick. This reaction leads to the match igniting and producing a flame.
The observation that heat is evolved when a match burns is a phenomenon or observation. It can be explained by the theory of combustion, which describes the chemical reaction between the match and air that releases energy in the form of heat and light.