They would be equal .Because of the conservation of matter no mass can be destroyed or created
An exothermic reaction is a type of chemical reaction where the energy of the products is less than the energy of the reactants. This means that energy is released during the reaction in the form of heat or light. Examples include combustion reactions and many neutralization reactions.
This statement would be...false.The reactants are located on the left, and the products are located on the right.This is desmond thaxs so much it helped =)
the reactants always start at the line but the product would either be over or under the line depending on the reaction.
Adding a catalyst to a reaction represented by a graph would typically lower the activation energy, leading to a faster rate of reaction without being consumed in the process. On a reaction progress graph, this would be reflected by a steeper slope in the rate of reaction over time. However, the overall energy levels of reactants and products would remain unchanged, meaning the position of the reactants and products on the energy axis would stay the same. Thus, the catalyst alters the pathway of the reaction but not the thermodynamics.
Increasing the concentration of reactants will shift the equilibrium towards the products. The equilibrium will always shift to reduce the change you caused. If you add more products, it shifts toward reactants. This is known as the Le Chatelier Principle.See the Web Links to the left of this answer for more about this.
The mass of the reactants compare to the mass of the products in that they are equal. The law to conservation of mass states that mass cannot be createdor destroyed. It can only be altered which would be a case in a chemical reaction.
The reactants are on the left side of the equation, and the products are on the right side of the equation. The reactants are used up in a chemical reaction, and the products are the substances made by the reaction.
Reactants are added into the equation to form the chemical reaction. Reactants are substances that are changed into products. Without these reactants, there would be no formula, resulting in no product.
When a chemical reaction takes place, it starts with chemicals which are called reactants, literally meaning those which react, and after the reaction has taken place you then have chemicals called products, because they were produced by the reaction.
Before the reaction, the reactants would be iron and sulfur. After the reaction, the products would be iron sulfide. The difference between the reactants and products is the chemical composition and properties of the substances involved.
A chemical reaction whose reactants have less potential energy than the products would be called an endothermic reaction.
It measures the amount of reactants actually produced in a reaction compared to the amount that would theoretically be produced if 100% of the reactants were converted to products according to the stoichiometry of the reaction. It is found by: actual moles of products ÷ predicted moles of products * 100%
The reactants are the elements or compounds that are reacting with one another. And the products are what is produced from the reaction. For example, MgO + H20 -> Mg(OH)2. MgO and H2O are the reactants. Mg(OH)2 is the product.
An exothermic reaction is a type of chemical reaction where the energy of the products is less than the energy of the reactants. This means that energy is released during the reaction in the form of heat or light. Examples include combustion reactions and many neutralization reactions.
The reactants are basically what you put in (not including catalysts which are not part of the reaction, only make it more efficient). The products are what is produced at the end of that reaction.
This statement would be...false.The reactants are located on the left, and the products are located on the right.This is desmond thaxs so much it helped =)
Reaction stoichiometry investigates the relationships between the amounts of reactants and products in a chemical reaction. It helps determine the ideal ratio of reactants required for a complete reaction and predict the amounts of products produced. By understanding reaction stoichiometry, scientists can optimize reactions for efficiency and yield.