You can't express that reaction because there isn't one: as CO2 is a well-known fire extinguishing agent, if you put a burning splint in CO2 the splint will go out. And the reason it will go out is CO2 displaces oxygen, which splints need to burn.
A glowing splint will reignite in the presence of oxygen due to the process of combustion. Oxygen feeds the combustion reaction, allowing the splint to continue burning.
To do the burning splint test, you light a wooden splint and then blow it out to create an ember. You then place the splint near a gas sample without touching it. If the gas is flammable, it will ignite and produce a flame when the ember from the splint comes into contact with it.
When a lighted splint is put into a glass jar of helium, the splint will immediately extinguish because helium is an inert gas that does not support combustion. The lack of oxygen in the helium prevents the splint from continuing to burn.
carbon dioxide
The gas that causes a burning splint to go out is carbon dioxide. Its presence is often used to test for the presence of this particular gas.
A burning wooden splint has a visible flame at its burning end while a glowing wooden splint has glowing ember at its glowing end. Placing a glowing splint in a container with oxygen will cause it to burst into flames and become a burning splint.
Oxygen gas will "pop" when a burning splint is inserted into a test tube, due to the rapid combustion reaction that occurs between the oxygen and the flammable material on the splint. This reaction creates a small explosion sound known as a "pop".
A glowing splint will reignite in the presence of oxygen due to the process of combustion. Oxygen feeds the combustion reaction, allowing the splint to continue burning.
The CO2 evolved from the reaction extinguishes the flame.
The gas produced is hydrogen gas (H2). The reaction between sodium metal and water is a highly exothermic reaction that liberates hydrogen gas, which in turn reacts explosively with oxygen in the air when ignited by a burning splint.
When you combine magnesium dioxide with a burning wood splint in a gas generating bottle, the magnesium dioxide undergoes a chemical reaction in which it decomposes to form magnesium oxide and oxygen gas. The burning wood splint acts as a source of heat to initiate the reaction. The oxygen gas produced can be collected in the gas generating bottle.
The burning splint test for manganese involves observing a pale green flame when a burning splint is brought close to a manganese sample in a Bunsen burner flame. This test is indicative of the presence of manganese.
To do the burning splint test, you light a wooden splint and then blow it out to create an ember. You then place the splint near a gas sample without touching it. If the gas is flammable, it will ignite and produce a flame when the ember from the splint comes into contact with it.
When a lighted splint is put into a glass jar of helium, the splint will immediately extinguish because helium is an inert gas that does not support combustion. The lack of oxygen in the helium prevents the splint from continuing to burn.
If the burning splint is extinguished upon entry into the beaker, one could conclude that the gas in the beaker is likely non-flammable or oxygen-depleted. If the splint continues burning, this suggests the presence of oxygen in the beaker.
Yes.
carbon dioxide