It will be zero if it is an interactio between 2 bodies
Newton's third law states that for every action, there is an equal and opposite reaction. It is applicable whenever a force is exerted on a body, resulting in a reaction force of equal magnitude but in the opposite direction on another body. This law is always in effect when there are interactions between two objects.
To calculate the standard entropy change (ΔS°) for a reaction, you need to use the formula: [ \Delta S° = \sum S°{\text{products}} - \sum S°{\text{reactants}} ] You would sum the standard entropy values of the products and subtract the sum of the standard entropy values of the reactants. If you provide the specific reaction and the standard entropy values, I can calculate it for you.
wheelbarrow on ground : action force is its weight reaction force is the force from the ground When u push on a wall: action is the force u push with reaction force is the force exerted by the wall
Because of the Law of Conservation of Energy, they are equal in order to sum to zero so that energy is conserved. Newton took observations from Keplar and derived them mathematically. Physicsists have not realized that Newton's Laws all derive form Conservation of Energy. The reason is that Newton and modern physicists have not realized that nature is composed of quaternions. The gravitational Energy is quaternion E= -mu/r + mcV, a quaternion. The conservation law is: 0=(d/dr + Del)(-mu/r + mcV) = m(v^2/r - cv/r cos(z)) + (dmcV/dr - mDel u/r + cmDelxV) The Action reaction law is 0=(dmcV/dr - mDel u/r + cmDelxV), the vector equilibrium. There are three terms in the vector equilbrium, any one can be the action and the sum of the other two is the reaction and will be equal and opposite to the action.
The total sum of the mass of products equals the total sum of the mass of reactants in a chemical reaction, according to the law of conservation of mass. This law states that matter is neither created nor destroyed in a chemical reaction, so the total mass remains constant.
Yes
Every action has an equal and opposite reaction to achieve Equilibrium where the forces sum to zero.
Motion - or rather acceleration - occurs as a result of a net force, meaning that the vector sum of forces on an object is non-zero. This is unrelated to "action and reaction"; please note that "action" and "reaction" occur on DIFFERENT OBJECTS.
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Newton's third law states that for every action, there is an equal and opposite reaction. It is applicable whenever a force is exerted on a body, resulting in a reaction force of equal magnitude but in the opposite direction on another body. This law is always in effect when there are interactions between two objects.
The action and reaction forces have equal magnitudes and opposite directions, so their vector sum is zero. We say the two forces are "balanced", and the net force on the book is zero, so the book doesn't accelerate.
The method to calculate the reaction enthalpy for a chemical reaction is to subtract the sum of the enthalpies of the reactants from the sum of the enthalpies of the products. This difference represents the overall energy change of the reaction.
To calculate the enthalpy of a reaction, you subtract the sum of the enthalpies of the reactants from the sum of the enthalpies of the products. This difference represents the change in heat energy during the reaction.
To calculate the reaction enthalpy, you subtract the sum of the enthalpies of the reactants from the sum of the enthalpies of the products. This difference represents the heat energy released or absorbed during the reaction.
The enthalpy of a reaction is the sum of the enthalpies of intermediate reaction.
Metabolism encompasses all the chemical reactions that occur in the body to maintain life. It includes processes such as converting food into energy, building and repairing tissues, and removing waste products. This continuous sum of reactions is essential for growth, energy production, and overall function of the body.
The enthalpy of reaction is the heat energy change that occurs in a chemical reaction at constant pressure. It is the difference between the sum of the enthalpies of the products and the sum of the enthalpies of the reactants.