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Maximum possible numbers of two dimensio...

Maximum possible numbers of two dimensional and three dimensional lattices are respectively

A

5 and 14

B

7 and 14

C

14 and 4

D

5 and 13

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The correct Answer is:
To determine the maximum possible numbers of two-dimensional and three-dimensional lattices, we need to identify the Bravais lattices in each dimension. ### Step-by-Step Solution: 1. **Understanding Lattices**: - A lattice is a regular arrangement of points in space. In two dimensions, we can visualize this as a flat grid, while in three dimensions, it extends into space. 2. **Two-Dimensional Lattices**: - In two dimensions, there are five distinct types of Bravais lattices: 1. **Square Lattice**: Points are arranged in a square grid. 2. **Rectangular Lattice**: Points are arranged in a rectangular grid. 3. **Centered Rectangular Lattice**: Similar to the rectangular lattice but with additional points at the center of the rectangles. 4. **Hexagonal Lattice**: Points are arranged in a hexagonal pattern. 5. **Parallelogram Lattice**: Points are arranged in a parallelogram shape. - Therefore, the maximum number of two-dimensional lattices is **5**. 3. **Three-Dimensional Lattices**: - In three dimensions, there are fourteen distinct types of Bravais lattices: 1. **Simple Cubic**: Points are arranged in a cube. 2. **Body-Centered Cubic (BCC)**: Points at the corners of the cube and one in the center. 3. **Face-Centered Cubic (FCC)**: Points at the corners and the centers of each face of the cube. 4. **Simple Tetragonal**: Similar to cubic but with a different height. 5. **Body-Centered Tetragonal**: Similar to BCC but in a tetragonal shape. 6. **Simple Orthorhombic**: Points arranged in an orthorhombic shape. 7. **Base-Centered Orthorhombic**: Similar to orthorhombic but with additional points at the base. 8. **Face-Centered Orthorhombic**: Points at the corners and the centers of the faces of the orthorhombic shape. 9. **Simple Monoclinic**: Points arranged in a monoclinic shape. 10. **Base-Centered Monoclinic**: Similar to monoclinic but with additional points at the base. 11. **Rhombohedral**: Points arranged in a rhombohedral shape. 12. **Hexagonal**: Points arranged in a hexagonal prism shape. 13. **Triclinic**: Points arranged in a triclinic shape with no symmetry. 14. **Base Monoclinic**: Similar to monoclinic but with additional points at the base. - Therefore, the maximum number of three-dimensional lattices is **14**. 4. **Final Answer**: - The maximum possible numbers of two-dimensional and three-dimensional lattices are **5 and 14**, respectively.
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