What is the primary difference between regular active transport and passive transport?
Question 2
2.
What molecules are used to fuel the process of active transport?
Question 3
3.
Sort the following
The goal is to reach dynamic equilibrium
Question 4
4.
What is the meaning of endocytosis in the context of active membrane transport?
Question 5
5.
Why is ATP needed in regular active transport?
Question 6
6.
In what process do cells expel waste materials or secrete substances?
Question 7
7.
Identify the type of active transport each of the following fall under.
Release of many large digestive enzymes
Uptake of a large amount of cholesterol
Pumping glucose into a cell
Sodium-Potassium Pump
Exocytosis
Endocytosis
Question 8
8.
Categorize these processes as either using ATP directly, vesicles, or neither for active transport.
Sodium-Potassium Pump
Release of many neurotransmitters
Facilitated diffusion
Proton pump
Uses ATP directly
Uses vesicles
Question 9
9.
What is regular active transport?
Question 10
10.
What happens in endocytosis?
The final questions will refer to the image below. Note: do not address osmosis in this answer! If there is not a protein channel or pump drawn do not assume that it is present.
Question 11
11.
Question 12
12.
What form of membrane transport is occurring for Na+?
Question 13
13.
Question 14
14.
What form of membrane transport is occurring for K+?
Question 15
15.
Question 16
16.
What form of membrane transport is occurring for glucose?
Question 17
17.
Question 18
18.
What form of membrane transport is occurring for CO2?
Involves the movement of water
Involves the movement of solutes from areas of high concentration to areas of low concentration
Involves solutes moving through a protein channel without the use of energy
Moves molecules against the concentration
Involves the use of a protein pump
Involves the movement of solutes from areas of low concentration to areas of high concentration
Does not require energy
Simple diffusion
Facilitated diffusion
Osmosis
"Regular" active transport
Regular Active Transport
Uses neither
Which of the following is true about Na+?
The inside is hypertonic for Na+
The outside is hypertonic for Na+
The Na+ can move through the membrane without a channel or pump
The Na+ will move out of the cell through a protein pump
The Na+ will move into the cell through a protein pump
The Na+ is moving with the concentration gradient
The Na+ is moving against the concentration gradient
The movement of Na+ requires energy
The movement of Na+ does not require energy
Simple diffusion
Facilitated diffusion
Osmosis
"Regular" active transport
Exocytosis
Endocytosis
Which of the following is true about K+?
The inside is hypertonic for K+
The outside is hypertonic for K+
The K+ can move through the membrane without a channel or pump
The K+ will move out of the cell through a protein pump
The K+ will move into the cell through a protein pump
The K+ is moving with the concentration gradient
The K+ is moving against the concentration gradient
The movement of K+ requires energy
The movement of K+ does not require energy
Simple diffusion
Facilitated diffusion
Osmosis
"Regular" active transport
Exocytosis
Endocytosis
Which of the following is true about glucose?
The inside is hypertonic for glucose
The outside is hypertonic for glucose
The glucose can move through the membrane without a channel or pump
The glucose will move out of the cell through a protein channel
The glucose will move into the cell through a protein channel
The glucose is moving with the concentration gradient
The glucose is moving against the concentration gradient
The movement of glucose requires energy
The movement of glucose does not require energy
Simple diffusion
Facilitated diffusion
Osmosis
"Regular" active transport
Exocytosis
Endocytosis
Which of the following is true about CO2?
The inside is hypertonic for CO2
The outside is hypertonic for CO2
The CO2 can move through the membrane without a channel or pump
The CO2 will move out of the cell through the membrane
The CO2 will move into the cell through the membrane
The CO2 is moving with the concentration gradient
The CO2 is moving against the concentration gradient