The slope of a line on a position vs. time graph would represent the a velocity of the object being described.
a line graph would do the best or you could do the bar graph but it would be a bit longer to do
We would have to see the graph.
A graph about masses and volumes would represent density.
Once a graph has been created, y would be the axis which is shown up and down on the graph. The x axis is shown from left to right on the graph. Both are reference lines on a graph.
An enzyme that has lost its ability to function properly is often referred to as a denatured enzyme. This can occur due to changes in temperature, pH, or the presence of certain chemicals that disrupt the enzyme's structure. Once denatured, an enzyme may no longer be able to catalyze reactions effectively.
In a denatured enzyme, the three-dimensional structure of the enzyme is disrupted, leading to loss of its biological activity. This can be caused by factors such as changes in temperature, pH, or presence of denaturing agents, which alter the interactions that maintain the enzyme's structure. Once denatured, the enzyme may lose its ability to bind to its substrate and catalyze a reaction effectively.
Well, well, well, when a protein like an enzyme gets hot and bothered, it can undergo a process called denaturation. This basically means it loses its shape and can't do its job properly, like a soggy noodle trying to hold up a meatball. So, too much heat can essentially render the poor enzyme useless, like trying to use a melted ice cream cone as a spoon.
Enzymes may lose their ability to function properly due to factors such as high temperatures (heat denaturation), extreme pH levels, or chemical inhibitors binding to the active site and interfering with the enzyme-substrate interaction. These factors can alter the enzyme's structure, leading to a loss of its catalytic activity.
Delta G (d)
Heating the enzyme to 100 degrees Celsius may denature it, causing the enzyme to lose its active conformation and hence lose its ability to catalyze the reaction effectively. This would likely result in a decrease in product formation or no product formation at all in the subsequent experiment.
As the enzyme gets boiled, the extra heat breaks the bonds that make up the enzyme. This changes it's shape. When an enzyme lose4s it's shape, shape of active site, it loses its specificity, not allowing it to bind to the substrate. This decreases the rate of the reaction until it's completely denatured.
Denatured enzymes become dysfunctional because their three-dimensional structure is altered, affecting their active site and preventing proper substrate binding and catalytic activity. Denaturation can be caused by factors such as high temperature, extreme pH, or exposure to certain chemicals, leading to the disruption of the enzyme's secondary, tertiary, and quaternary structures.
When an enzyme is boiled, its three-dimensional structure is disrupted and it denatures. This leads to the loss of its catalytic activity since the active site no longer matches the substrate. Once denatured, the enzyme cannot function properly and is typically rendered inactive.
Pepsin is an enzyme that is most active in acidic environments, typically around pH 2. At a pH of 8, pepsin would likely become denatured and lose its enzyme activity. The change in pH would disrupt the enzyme's structure and prevent it from effectively breaking down proteins.
No. Depending on what the protein is, the consequences could be good or bad for some particular individual. If you were about to be injected with snake venom and the venom proteins got denatured, that would be a very good thing for you. If the protein that's being denatured is your own hemoglobin, that's a very bad thing for you.
If the active site of an enzyme is continuously filled and the maximum enzyme rate has been reached, adding more substrates will not increase the rate of the reaction. This is because all available enzyme active sites are already saturated with substrates, so increasing substrate concentration will not result in more enzyme-substrate complexes being formed.