Yes, the temperature of the water can affect the rate of the reaction for blobs in a bottle. Higher temperatures typically increase the rate of reaction because more collisions occur between the reactant molecules, leading to a faster reaction. Conversely, lower temperatures can slow down the reaction rate.
Only after the measurement of the reaction rate. See the link below for details.
By number of elctrons,protons in them and their reaction rate
Reaction rates are dependent on the concentration of reactants. As a reaction proceeds, the reactants are used up and thus their concentration is lowered. THis means that the maximum rate of reaction will be at or immediately after time zero, when the reaction is only just begun, and the minimum will be when one or more of the reactants' concentrations have reached zero. Thus, any rate stated for the reaction would only hold for a specific time in the reaction progress and cannot be extrapolated to cover all of that progress. So a mean rate of reaction must be used; this can tell a person, when combined with either the time of beginning, time of ending, or the initial concentrations, what any of the others were for the reaction in question. This is impossible to do if given a specific rate and the time it applied to; you cannot calculate any new information from just those two data.
In a redox reaction, the substance that is oxidized loses electrons. To identify which substance is oxidized, look for an increase in oxidation number or loss of hydrogen atoms or gain of oxygen atoms in the reaction. The substance that undergoes these changes is the one that is oxidized.
How the concentration of the reactants affects the rate of a reaction
Yes, the temperature of the water can affect the rate of the reaction for blobs in a bottle. Higher temperatures typically increase the rate of reaction because more collisions occur between the reactant molecules, leading to a faster reaction. Conversely, lower temperatures can slow down the reaction rate.
How fast a reaction is going
Heart rate and respiratory rate will increase.
The rate law is an equation that relates the rate of a chemical reaction to the concentration of reactants. It provides information on how the rate of the reaction is influenced by the concentrations of reactants and any catalysts involved. Additionally, the rate law helps determine the specific reaction order for each reactant.
Only after the measurement of the reaction rate. See the link below for details.
a) Increasing the concentration of KI would increase the slope of the curves due to the higher concentration of reactants affecting reaction rates. b) The rate of the reaction would likely increase with the higher KI concentration, as there are more reactant molecules available to interact. c) The numerical value of the rate constant, k, may change due to the altered reaction conditions, such as concentrations. The new k value would reflect the change in the rate of reaction caused by the change in KI concentration.
By number of elctrons,protons in them and their reaction rate
idk srry but is u know the answer please tell me thanks u
Reaction rates are dependent on the concentration of reactants. As a reaction proceeds, the reactants are used up and thus their concentration is lowered. THis means that the maximum rate of reaction will be at or immediately after time zero, when the reaction is only just begun, and the minimum will be when one or more of the reactants' concentrations have reached zero. Thus, any rate stated for the reaction would only hold for a specific time in the reaction progress and cannot be extrapolated to cover all of that progress. So a mean rate of reaction must be used; this can tell a person, when combined with either the time of beginning, time of ending, or the initial concentrations, what any of the others were for the reaction in question. This is impossible to do if given a specific rate and the time it applied to; you cannot calculate any new information from just those two data.
The sign of the enthalpy change (∆H) of the reaction will indicate the direction in which the equilibrium will shift with a change in temperature. If ∆H is negative (exothermic reaction), an increase in temperature will shift the equilibrium towards the reactants; if ∆H is positive (endothermic reaction), an increase in temperature will shift the equilibrium towards the products.
Heart rate and respiratory rate will increase.