It depends on a few things. If you mean thermodynamically stable, then no. The product of an endothermic reaction is higher in potential energy than the reactant(s) and will eventually release that energy and revert back (if it doesn't go on to some other product). If you mean kinetically stable, then maybe. It really depends on the relative energy of any intermediates formed in the conversion of reactant(s) to product(s). This relative energy is also known as activation energy. If the activation energy is high, then the product would be relatively stable. If the activation energy is low, then the product would not be stable.
Hydrogenation reactions are typically exothermic, meaning they release heat to the surroundings. This is because the addition of hydrogen to a molecule often results in a more stable product with lower energy than the reactants.
Reactants are the material or substance that react with each other. Product is the result of a reaction between two reactants. for example : magnesium + oxygen- magnesium oxideREACTANT 1+ REACTANT2 - PRODUCT
method is process and product
Formation of more product will be favored when the free energy change for the reaction (ΔG) is negative, indicating that the reaction is exergonic. This occurs when the energy of the products is lower than that of the reactants. Additionally, a lower energy transition state and a higher energy intermediate can also favor the formation of more product in the reaction.
In an endothermic reaction, the products have a higher heat content than the reactants. This means that energy is absorbed from the surroundings, resulting in a decrease in temperature.
It requires heat as a reactant.
In an exothermic reaction the reactants release energy to the environment when they react - like coal burning. In an endothermic reaction the reactants need to absorb energy from their environment when they react, so the reaction feels cold in your hand, or else you have to heat it continually to make it react. The products would then be at a higher energy level than the reactant were. Photosynthesis is an interesting example of an endothermic reaction, because in this example the energy supplied to make the reaction go is not heat but light. The product (sugar) is an 'energy store' which the plant (or whatever eats the plant) can use later on to release the energy in respiration.
It depends on a few things. If you mean thermodynamically stable, then no. The product of an endothermic reaction is higher in potential energy than the reactant(s) and will eventually release that energy and revert back (if it doesn't go on to some other product). If you mean kinetically stable, then maybe. It really depends on the relative energy of any intermediates formed in the conversion of reactant(s) to product(s). This relative energy is also known as activation energy. If the activation energy is high, then the product would be relatively stable. If the activation energy is low, then the product would not be stable.
The substances produced by a chemical reaction are known as Products. The substances that are reacted are the Reactants.
Hydrogenation reactions are typically exothermic, meaning they release heat to the surroundings. This is because the addition of hydrogen to a molecule often results in a more stable product with lower energy than the reactants.
Reactants are the raw ingredients before the experiment and products are what the the experiment produces. For instance if you ignite hydrogen and oxygen then the Reactants are hydrogen and Oxyhen and the Products are water (formed form the Hydrogen and Oxygen) and heat.
Reactants are the material or substance that react with each other. Product is the result of a reaction between two reactants. for example : magnesium + oxygen- magnesium oxideREACTANT 1+ REACTANT2 - PRODUCT
reactants and product
method is process and product
Endothermic
The product of this organic reaction is likely to be a compound formed from the reactants involved in the reaction. The specific structure and properties of the product will depend on the specific reactants and conditions of the reaction.