Another challenging way to get students to start to think about how adaptations allow specialized cells to function effectively is to get them to design their own specialized cell. This activity is best taught before the students have learned about specialized cells in detail, but after they have looked at basic cell structure. Students will really be able to demonstrate creativity and knowledge of the functions of cells in completing this activity.
Students should be given a particular function, such as carrying an electric signal from one part of the body to another. Students will then design a cell, then compare their diagrams with the specialized cell diagrams already included on Storyboard That. This would be a great time to review the structure and organelles of basic animal and plant cells so they can include these in their design.
In the activity instructions given to students, the function of carrying a message from one part of the body to another is used (a nerve cell). You can change these easily to include another function based on the types of specialized cells you will be teaching!
Modification
Scaffold the activity by changing the template to give students a diagram of a human body cell. Students would then be able to add on to the template instead of creating the cell from scratch.
Extension
Have students create a brand new cell for the body which would be used for superhuman activities: for example, a cell that allows Superman to fly or allows Spiderman to produce spider webs.
(These instructions are completely customizable. After clicking "Copy Activity", update the instructions on the Edit Tab of the assignment.)
Student Instructions
There are many cells that have special adaptations and features to allow them to carry out specific tasks effectively. Design your own cell that would allow electrical messages around to be sent around the body. Spend a few minutes thinking about what adaptations and features of a cell would do this effectively.
Show students actual examples of specialized cells (like red blood cells or plant root hair cells) using microscope images or diagrams. Relating cell designs to real-life structures helps students connect abstract concepts with tangible biological functions.
Encourage students to list possible adaptations (e.g., long extensions, extra mitochondria) that would help a cell perform a specific job. Brainstorming as a class or in small groups builds understanding and sparks creative ideas for their own designs.
Demonstrate labeling a diagram with clear, short descriptions of each organelle’s function. Explain why each feature is important for the cell’s specialized role. This scaffolds the process for students and clarifies expectations.
Facilitate a gallery walk or partner review where students share their cell diagrams and give constructive feedback. Discuss what features make each cell effective for its function, promoting critical thinking and revision.
Ask students to explain how their designed cell interacts with other cells or systems in the body. This helps them see the bigger picture and deepens understanding of how specialized cells fit into living organisms.
To design a specialized cell, choose a specific function (like transmitting electrical signals), brainstorm adaptations and organelles that help achieve this task, and create a labeled diagram. Encourage creativity and relate structure to function for deeper understanding.
Examples of specialized cell functions include carrying messages (nerve cells), transporting oxygen (red blood cells), producing insulin (pancreatic cells), or absorbing nutrients (intestinal cells). Pick a function and design adaptations that support it.
To scaffold, provide students with a pre-made cell template, such as a basic human body cell diagram. Let them add features and organelles instead of starting from scratch, making the activity more accessible and less overwhelming.
A basic cell contains fundamental structures, while a specialized cell has unique adaptations and organelles tailored for a specific function, like movement, communication, or secretion.
Encourage students to invent brand new cells with superhuman abilities—like a cell that lets someone fly or spin webs. This extension sparks creativity and helps students connect structure to imaginative functions.