Examples of using Reactants have in English and their translations into Indonesian
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Colloquial
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Ecclesiastic
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Computer
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Ecclesiastic
The reactants have more energy that the products.
In an exothermic reaction, the reactants have more energy than the products.
The reactants have more energy than the end products.
This means, in exothermic reactions, the reactants have more energy than the products.
The reactants have less energy than the products.
The release of energy in chemical reactions occurs when the reactants have higher chemical energy than the products.
Usually, the reactants have a higher energy associated with them and the products have a lower energy.
However, in order to go from reactants to products, the reactants have to go through a phase which is called the transition phase.
Up until this point, we have written the equations for chemical reactions in a way that wouldseem to indicate that all reactions proceed completely until all the reactants have been converted into products.
There is a steep energy hill which the reactants have to climb first and then slide along the other side to become products.
The first was the law of conservation of mass, formulated by Antoine Lavoisier in 1789, which states that the total mass in achemical reaction remains constant(that is, the reactants have the same mass as the products).
The first was the law of conservation of mass, formulated by Antoine Lavoisier in 1789, which states that the total mass in achemical reaction remains constant(that is, the reactants have the same mass as the products).[10] The second was the law of definite proportions.
The first was the law of conservation of mass, closely associated with the work of Antoine Lavoisier, which states that the total mass in achemical reaction remains constant that is, the reactants have the same mass as the products.
The first was the law of conservation of mass, formulated by Antoine Lavoisier in 1789, which states that the totalmass in a chemical reaction remains constant- i.e. that the reactants have the same mass as the products.
The first was the law of conservation of mass, formulated by Antoine Lavoisier in 1789, which states that the total mass in achemical reaction remains constant(that is, the reactants have the same mass as the reaction products).
Mole of reactants has a higher energy than 2 moles of products.
The pressure of gaseous reactants has basically the same effect as concentration.
The simplest control is if only one of the reactants has acidic protons, and only this molecule forms the enolate.
The simplest control is if only one of the reactants has acidic protons, and only this molecule forms the enolate.
Because nutrients or reactants had to diffuse far into these materials to reach the microbes, activity- and microbe viability- suffered as a consequence.
The law of conservation of mass states that no atoms can be created or destroyed in a chemical reaction,so the number of atoms that are present in the reactants has to balance the number of atoms that are present in the products.
The law of conservation of mass states that no atoms can be created or destroyed in a chemical reaction,so the number of atoms that are present in the reactants has to balance the number of atoms that are present in the products.
If a reactant has to undergo a change to form products, it must be have enough energy to overcome this barrier.
Reactants and products have equal mass.
Exothermic reactions have high energy reactants but low energy products.
AWhen the reactants and the products have equal concentrations.
In a thermodynamically controlled reaction the reactants may have a number of kinetically accessible routes to follow to form different products, but what is eventually formed is governed by relative thermodynamic stability.
Endothermic reactions have low energy reactants but high energy products conversely exothermic reactions have high energy reactants but low energy products.
Once we have identified all the reactants and products and have written the correct formulas for them, we assemble them in the conventional sequence- reactants on the left separated by an arrow from products on the right.