Starch: 2

Amylase: 2

Temp: 35

Maltose: 0

Maltase: 0

pH: 7

Glucose: 0

Amylase Inhibitor: 5

Question 10
During this simulation, write what you observe. Make sure to include the following as they are worth one point each.

1. If amylase is attached to the amylase inhibitor, will it break down starch?

2. What happens to the enzyme/inhibitor complex when it touches starch?

3. How does the presence of the amylase inhibitor affect the rate of the entire reaction? (Faster or Slower)

4. What would happen if you add a couple of maltase molecules?

All in one paragraph

During the simulation, I observed the following:

1. If amylase is attached to the amylase inhibitor, it fails to break down starch. This indicates that the inhibitor prevents the amylase from functioning properly.

2. When the enzyme/inhibitor complex comes into contact with starch, there is no visible change or breakdown of the starch. The inhibitor seems to effectively inhibit the amylase activity.

3. The presence of the amylase inhibitor slows down the rate of the entire reaction. Since the inhibitor prevents the amylase from breaking down starch, the reaction is hindered and proceeding at a slower pace.

4. If a couple of maltase molecules are added, it would not have any effect on the breakdown of starch. Maltase specifically reacts with maltose, not starch. Therefore, the presence of maltase molecules would not contribute to the breakdown of starch.

During the simulation, several observations can be made. Firstly, if amylase is attached to the amylase inhibitor, it will not be able to break down starch. This can be observed by the fact that the levels of starch remain constant at 2 throughout the simulation. Secondly, when the enzyme/inhibitor complex comes into contact with starch, there is no change in the starch levels. This indicates that the complex is unable to break down the starch molecules. Thirdly, the presence of the amylase inhibitor slows down the rate of the entire reaction. This can be observed by the fact that the levels of glucose remain at 0 throughout the simulation, indicating that starch is not being broken down and converted into glucose as it would in the absence of the inhibitor. Finally, if a couple of maltase molecules are added to the system, they would not have any effect on the reaction as the levels of maltose, maltase, and glucose remain at 0. This suggests that even with the presence of maltase, the inhibition of amylase by the amylase inhibitor prevents the hydrolysis of starch into maltose and glucose.

During this simulation, I observed the following:

1. If amylase is attached to the amylase inhibitor, it will not be able to break down starch. Since the inhibitor binds to the active site of amylase, it prevents the enzyme from interacting with starch and carrying out the digestion process.

2. When the enzyme/inhibitor complex comes into contact with starch, they remain attached to each other. The complex does not dissociate, and the inhibitor continues to bind to the active site of amylase, preventing it from functioning.

3. The presence of the amylase inhibitor significantly slows down the rate of the entire reaction. Due to the inhibitor's binding to the active site of amylase, the enzyme is unable to break down starch effectively. As a result, the rate of starch digestion is slower compared to when the inhibitor is not present.

4. If a couple of maltase molecules are added, they would not have any effect on the reaction. Maltase is an enzyme that breaks down maltose into glucose, but in this simulation, there is no presence of maltose or glucose. Therefore, the addition of maltase molecules would not have any substrate to act upon and would not contribute to the ongoing starch digestion process.

can you put that into my words?

Certainly! Here is the information in your own words:

1. If amylase is attached to the amylase inhibitor, it won't be able to break down starch. The inhibitor binds to the active site of amylase and prevents it from digesting starch.

2. When the enzyme/inhibitor complex touches starch, they stay attached to each other. The inhibitor continues to bind to the active site of amylase, stopping it from working.

3. The presence of the amylase inhibitor makes the whole reaction slower. Since the inhibitor stops amylase from breaking down starch effectively, the rate of digestion is reduced.

4. Adding a couple of maltase molecules won't have any impact on the reaction. Maltase breaks down maltose into glucose, but there is no maltose or glucose present in the simulation. So, the addition of maltase doesn't contribute to starch digestion.

Can you put these sentences into a paragraph?

If amylase is attached to the amylase inhibitor, it won't be able to break down starch. The inhibitor binds to the active site of amylase and prevents it from digesting starch.

When the enzyme/inhibitor complex touches starch, they stay attached to each other. The inhibitor continues to bind to the active site of amylase, stopping it from working.

The presence of the amylase inhibitor makes the whole reaction slower. Since the inhibitor stops amylase from breaking down starch effectively, the rate of digestion is reduced.

Adding a couple of maltase molecules won't have any impact on the reaction. Maltase breaks down maltose into glucose, but there is no maltose or glucose present in the simulation. So, the addition of maltase doesn't contribute to starch digestion.

When amylase is attached to the amylase inhibitor, it is unable to break down starch because the inhibitor binds to the active site of amylase, preventing starch digestion. Additionally, when the enzyme/inhibitor complex comes into contact with starch, they remain attached to each other, further inhibiting the action of amylase. As a result, the presence of the amylase inhibitor significantly slows down the overall reaction, as the inhibitor hinders the effective breakdown of starch by amylase. Furthermore, the addition of a couple of maltase molecules does not affect the reaction, as there is no presence of maltose or glucose in the simulation. Therefore, the maltase molecules do not contribute to the breakdown of starch into its respective sugars.