[Select] [Select] [Select] transport. V transport. would move across a membrane using simple diffusion. would move across a membrane using primary active transport. would move across a membrane using secondary active ✓ [Select] Glucose (when blood glucose is high) Glucose (when blood glucose is low) Sodium ions Carbon dioxide [Select] nove across a membrane using simple diffusion. move across a membrane using primary active transport. would move across a membrane using secondary active
[Select] [Select] [Select] transport. V transport. would move across a membrane using simple diffusion. would move across a membrane using primary active transport. would move across a membrane using secondary active ✓ [Select] Glucose (when blood glucose is high) Glucose (when blood glucose is low) Sodium ions Carbon dioxide [Select] nove across a membrane using simple diffusion. move across a membrane using primary active transport. would move across a membrane using secondary active
Biochemistry
9th Edition
ISBN:9781319114671
Author:Lubert Stryer, Jeremy M. Berg, John L. Tymoczko, Gregory J. Gatto Jr.
Publisher:Lubert Stryer, Jeremy M. Berg, John L. Tymoczko, Gregory J. Gatto Jr.
Chapter1: Biochemistry: An Evolving Science
Section: Chapter Questions
Problem 1P
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Q11
![**Membrane Transport Education Module**
This module includes a selection-based activity designed to help learners understand different types of membrane transport mechanisms.
### Activity Instructions
For each statement below, select the appropriate substance that corresponds with the described transport mechanism:
1. `[ Select ]` would move across a membrane using **simple diffusion**.
2. `[ Select ]` would move across a membrane using **primary active transport**.
3. `[ Select ]` would move across a membrane using **secondary active transport**.
### Available Options
- **Glucose (when blood glucose is high)**
- **Glucose (when blood glucose is low)**
- **Sodium ions**
- **Carbon dioxide**
### Explanation of Transport Mechanisms
1. **Simple Diffusion**: This occurs when molecules pass directly through the cell membrane without energy input, typically following a concentration gradient from high to low concentration. Example: Movement of carbon dioxide.
2. **Primary Active Transport**: This involves the direct use of metabolic energy (ATP) to transport molecules against their concentration gradient. Example: Sodium ions via sodium-potassium pump.
3. **Secondary Active Transport**: This type of transport uses the energy from the electrochemical gradient created by primary active transport to move substances. Example: Glucose absorption in the intestines when blood glucose is low.
Use the dropdown menus to select the correct substance for each transport type based on their typical biological behavior.](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2Ffdac5784-6171-4c2d-813f-cbb526f56bfb%2Fd00bd845-cbdb-4692-ac60-97f8b04495e2%2Fzj7et4p_processed.jpeg&w=3840&q=75)
Transcribed Image Text:**Membrane Transport Education Module**
This module includes a selection-based activity designed to help learners understand different types of membrane transport mechanisms.
### Activity Instructions
For each statement below, select the appropriate substance that corresponds with the described transport mechanism:
1. `[ Select ]` would move across a membrane using **simple diffusion**.
2. `[ Select ]` would move across a membrane using **primary active transport**.
3. `[ Select ]` would move across a membrane using **secondary active transport**.
### Available Options
- **Glucose (when blood glucose is high)**
- **Glucose (when blood glucose is low)**
- **Sodium ions**
- **Carbon dioxide**
### Explanation of Transport Mechanisms
1. **Simple Diffusion**: This occurs when molecules pass directly through the cell membrane without energy input, typically following a concentration gradient from high to low concentration. Example: Movement of carbon dioxide.
2. **Primary Active Transport**: This involves the direct use of metabolic energy (ATP) to transport molecules against their concentration gradient. Example: Sodium ions via sodium-potassium pump.
3. **Secondary Active Transport**: This type of transport uses the energy from the electrochemical gradient created by primary active transport to move substances. Example: Glucose absorption in the intestines when blood glucose is low.
Use the dropdown menus to select the correct substance for each transport type based on their typical biological behavior.
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