energy source that niether the reactant nor the product
Yes. A catalyst (AKA enzyme, in biochemical reactions) bonds to reactants and lowers the activation energy required for the reaction to take place. (It makes it require less energy to happen.) After the reaction is finished, the enzyme unbinds and can be reused. Catalysts are used to speed up biochemical reactions; for example, without enzymes, the food you ate a month ago wouldn't be digested and would still be sitting in your stomach today. Enzymes can be denatured (lose their shape) by extreme heat or acid. If it is denatured then it cannot perform a biochemical reaction.
{In the banner, Biochemistry was put beside Wood-Burning Stoves for this Reason: The Biochemical Equation that Describes Photosynthesis is the exact opposite of the Biochemical Equation that Describes Respiration.}The Chemical Reactions that describe Combustion - the combining of hydrocarbons [oil for example] with Oxygen to produce H2O and chemical [thermal] energy - Heat - and CO2 - are identical to the Biochemical reactions that describe Respiration.
High heat can denature enzymes, disrupting their structure and functional shape. This can render the enzymes inactive or reduce their efficiency in catalyzing biochemical reactions. Additionally, prolonged exposure to high heat can lead to irreversible damage to enzymes.
No, It will happen evey six months no matter what you do.
Exothermic reactions produce heat. Endothermic reactions take in heat from the surrounding area and get cold.
Endothermic reactions need heat.
A heat filter is used to regulate the temperature during photosynthesis to optimize enzyme activity and biochemical reactions. Photosynthesis can be affected by extreme temperatures, so a heat filter helps to maintain an ideal temperature range for efficient photosynthetic processes.
Not all acid reactions give off heat. Some acid reactions are endothermic, meaning they absorb heat from the surroundings instead of releasing it. Examples of endothermic acid reactions include the reaction of citric acid with water.
No. Heat is given out (liberated) in exothermic reactions not endothermic. exo = out, therm = heat. Endothermic reactions take in heat energy from the surrounding wshich cause the surrounding temperature to decrease. endo = in.
The properties of water produced from reactions, such as combustion or chemical synthesis, include its polarity, high specific heat, and solvent capabilities. Water's polarity allows it to dissolve various substances, making it an excellent solvent for many biochemical reactions. Its high specific heat helps regulate temperature in environments, contributing to climate stability. Additionally, the hydrogen bonding in water results in high surface tension, which is crucial for many biological processes.
No, the spontaneity of reactions is not always associated with exothermic heat release. Some spontaneous reactions can be endothermic, meaning they absorb heat from their surroundings.
Endothermic reactions are chemical reactions that use heat as part of the reactant. Heat is absorbed into the reaction in order for it to continue. Exothermic reactions are chemical reactions that release heat as a product of the reaction.