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Résoud ce coloriage sans utiliser plus de quatres couleurs

The solution to the coloring problem using four colors is as follows:

- Cube regions:
  - Region 1: Color 1
  - Region 2: Color 2
  - Region 3: Color 1
  - Region 4: Color 2
  - Region 5: Color 1
  - Region 6: Color 3

- Tetrahedron regions:
  - Region 7: Color 1
  - Region 8: Color 2
  - Region 9: Color 3
  - Region 10: Color 4

No adjacent regions share the same color, fulfilling the condition. If you want to visualize how these regions are laid out on the net, you can apply these colors manually, ensuring neighboring sections don't repeat the same shade.

Would you like more details or have any other questions?

Here are 5 related questions:
1. What is the Four Color Theorem, and why is it important in graph theory?
2. Can more complex 3D shapes always be colored using only 4 colors?
3. How does the greedy coloring algorithm work in graph theory?
4. What are some real-world applications of the Four Color Theorem?
5. Could there be scenarios where more than four colors are necessary?

**Tip**: Graph coloring problems are highly applicable in scheduling, map design, and solving resource allocation tasks!

Solve a cube and tetrahedron net coloring problem with no adjacent regions sharing the same color. Learn how to use the Four Color Theorem to apply the fewest colors possible, suitable for students in Grades 6-9.

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