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.
The product is hydrogen. to test for hydrogen, take a lighted match or a splint and bring it near the place where you think there is hydrogen and if you hear a squeaky "POP!" there is hydrogen there
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.
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.
When a glowing splint is inserted into a test tube containing hydrogen peroxide and manganese dioxide, the glowing splint will reignite, displaying the catalytic decomposition of hydrogen peroxide into water and oxygen. The manganese dioxide acts as a catalyst in this reaction, speeding up the decomposition of hydrogen peroxide.
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.
The product is hydrogen. to test for hydrogen, take a lighted match or a splint and bring it near the place where you think there is hydrogen and if you hear a squeaky "POP!" there is hydrogen there
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.
Copper sulfate does not extinguish a lighted splint. When a lighted splint is exposed to copper sulfate, the flame may change color due to the presence of copper ions, but the splint will continue to burn as long as there is sufficient oxygen available for the combustion reaction to occur.
glowing splint ... if it relights then the chemical reaction produces oxygen.
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.
The CO2 evolved from the reaction extinguishes the flame.
When sodium carbonate (Na2CO3) reacts with hydrochloric acid (HCl), it undergoes a double displacement reaction. Sodium chloride (NaCl) and carbonic acid (H2CO3) are formed as products. Carbonic acid then decomposes into water and carbon dioxide gas. The released carbon dioxide gas causes the fizzing or bubbling commonly observed in this reaction, pushing the splint out due to the pressure buildup.
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 potassium beaker did not react with the flaming splint because potassium is not a flammable substance. Potassium is a reactive metal that can react vigorously with water or air when exposed, but it does not burn in the presence of a flaming splint. The lack of reaction is due to the properties of potassium and its inability to support combustion.
You light a splint and then light the bunson burnor with the fire on the 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".