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Why is a high fever dangerous to enzymes?
A high fever can denature enzymes by altering their shape and structure. Enzymes are sensitive to changes in temperature, and a high fever can disrupt the delicate balance needed for enzymes to function properly, leading to decreased enzyme activity and potentially causing harmful effects on various biological processes in the body.
What is reversible lesion?
It is a chemical deactivation of certain brain structure to simulate the effects of removing the structure. This can be done in advance of brain surgeries to predict the effects of the surgery.
What is the chemical structure of caffeine and how does it contribute to its effects on the human body?
The chemical structure of caffeine is C8H10N4O2. It works by blocking adenosine receptors in the brain, which helps to increase alertness and reduce feelings of tiredness. This leads to improved focus, increased energy, and a temporary boost in cognitive function.
What is a phase diagram?
a diagram showing the effects of temperature and pressure on phase
What is the best definition of the term DRUG?
A drug is a substance that has a physiological effect when introduced into the body, altering its function or structure. Drugs can be used for medicinal purposes to treat illness, or recreationally for their psychoactive effects.
What effects do increased temperature have on the activity of salivary amylase?
Increase the temperature too much and this protein will denature and stop working.
Why is a high fever dangerous to enzymes?
A high fever can denature enzymes by altering their shape and structure. Enzymes are sensitive to changes in temperature, and a high fever can disrupt the delicate balance needed for enzymes to function properly, leading to decreased enzyme activity and potentially causing harmful effects on various biological processes in the body.
What effects does acid have on ezyme?
Acids can denature enzymes and make them less active or completely inactive. Denaturation causes a change in the three-dimensional structure of an enzyme which can affect the function of the enzyme.
The ideal temperature at which to study the effect of proteases on protein is 37 degrees celsius why are higher temperatures not advisable?
Higher temperatures can denature proteins, causing them to lose their structure and function. This can lead to inaccurate results when studying the effects of proteases on proteins. 37 degrees Celsius is closer to the physiological temperature of the human body, making it more suitable for studying biological processes.
Does boiling water kill enzymes?
Enzymes are not alive, so they cannot be killed. Typically though, bringing an enzyme to a boiling temperature is enough to denature it. There's no evidence though that denatured enzymes in food at all affects the nutritional effects of the food.
What are the effects of denaturation?
Denaturation disrupts the structure of proteins, causing them to lose their native conformation, and consequently their biological activity. This can be triggered by changes in temperature, pH, or exposure to chemicals, leading to loss of function in the denatured protein.
What are the objectives of denaturation of protein?
The main objectives of denaturation of proteins are to disrupt their native structure, unfold the protein molecule, and expose the active sites. This process is often done to study the primary structure of the protein, as well as to investigate the effects of temperature, pH, or chemicals on protein stability and function.
What are the effects of boiling water on salivary amylase?
Salivary amylase is an enzyme, and like almost all enzymes, high temperature will denature it. The higher the temperature, the more kinetic energy molecules will have. At a certain point, all that movement disrupts the secondary, tertiary, and quaternary structure of the enzyme. If the active site is no longer in the proper shape, it cannot attach to its substrate (amylose) and aid in its hydrolysis. Therefore, boiled salivary amylase will not hydrolyze amylose into disaccharides.
Why does pH denature enzymes?
If the temperature is increased then the enzyme becomes denatured. This happens at about 50-60 degrees in the human body. When enzymes are heated up too much they vibrate so vigorously that the bonds holding the protein structure in its specific shape break. The enzyme shape changes and the substrate no longer fits in to the active site. An enzyme which has become denatured is permanently inactive and will take no further part in reactions.
What are two environmental factors that can change the shape of an enzyme?
Everything from the weather to the temperature of a room, it all effects how your body releases the enzymes to make your body warmer or cooler or hard or softer. They are minute subtle changes but its enough to somewhat shield you from extreme conditions. ^^^ WHAT THE HECK ARE U TALKING ABOUT??! crazy dipsh*t... ok so environmental factors that affect enzyme activity are typically PH (level of acidity), temperature, heat, and concentration of substrate (substance that an enzyme works on)... PH and temperature at a convenient level for the enzyme tend to increase the activity, but at an extreme level can denature them (they unfold and become useless). Heat at higher levels also tends to denature them, and the concentration of a substrate at a high level increases activity and at a low level decreases activity. btw, the person who wrote the first answer is very annoying and does not know what the f**k they are talking about :)
What are long range effects?
Long-term effects may include: Addiction Psychosis, including: paranoia hallucinations repetitive motor activity Changes in brain structure and function Deficits.
What effect might change in the pH of the body fluids or body temperature that accompany illness have on cells?
Changes in pH or body temperature can disrupt the normal function of cells by altering enzyme activity, protein structure, and membrane permeability. These changes can lead to cellular damage, malfunction, and even cell death if not regulated properly. Cells rely on a narrow range of pH and temperature for optimal function, so any significant deviation can have detrimental effects on cellular processes.
