Thereby, endothermal and exothermal reaction can be thermostated.

The reaction energy (the "Q-value") is positive for exothermal reactions and negative for endothermal reactions.

An Italian patent, which received a formal but not a technical examination, describes the apparatus as a "process and equipment to obtain exothermal reactions, in particular from nickel and hydrogen".

Upon ignition of the decoy flare, a strongly exothermal reaction is started, releasing infrared energy and visible smoke and flame, emission being dependent on the chemical nature of the payload used.

I understand that it is an exothermic reaction, but why?

This is an exothermic reaction, so steps must be taken to control the temperature.

The energy change associated with this exothermic reaction can be calculated using a computer.

The dissolution is an exothermic reaction, I hope this helps!

It is caused by a highly exothermic reaction taking place in a thin zone.

In a second situation, let us say that A to B is an exothermic reaction.

The energy liberated by an exothermic reaction is not converted to mass.

Violent exothermic reaction when mixed with water (becomes extremely hot).

Not so much the erection-the plaster is an exothermic reaction.

Combustion is a typical exothermic reaction - any type of burning.

The splitting of water is not an exothermic reaction.

Once started, a wave of exothermic reaction sweeps through the remaining material.

The exothermic reactions are often explosive due to local overheating.

A steady stream of oxygen gas is then produced by the exothermic reaction.

And, if the exothermic reaction does speed up, why does the equilibrium position still change?

Under certain circumstances, (highly exothermic reactions) the reaction will proceed very quickly once started.

So, an exothermic reaction can be either endergonic or exergonic.

In principle, in an exothermic reaction there is a small loss of mass.

This being an exothermic reaction should be cooled and kept around 30-40 degrees Celsius.

It is the result of an exothermic reaction.

This increases heat production as respiration is an exothermic reaction in muscle cells.

It also undergoes an exothermic reaction which destroys the vessel wall.

As it hydrates, an exothermic reaction results and the solid puffs up.

This is how exothermic reactions make their solutions hotter.

Here, light is generated from a chemically exothermic reaction.