54. An infinite plane has to be tiled (without gaps or overlaps) using...
Analysis:
To tile an infinite plane using identical tiles in the shape of a regular n-sided polygon, we need to find the values of n that satisfy the tiling condition (without gaps or overlaps).
Approach:
We can analyze the possibilities for different values of n and determine whether they satisfy the tiling condition.
Case 1: n = 3 (Triangle)
If we consider a regular triangle as the tile, it is not possible to tile an infinite plane without gaps or overlaps. This is because the angles of a regular triangle sum up to 180 degrees, and when we try to arrange the tiles, the total sum of angles will always be a multiple of 180 degrees, resulting in gaps or overlaps.
Case 2: n = 4 (Square)
If we consider a regular square as the tile, it is possible to tile an infinite plane without gaps or overlaps. We can arrange the squares in a grid-like pattern, with each square adjacent to four other squares.
Case 3: n = 5 (Pentagon)
If we consider a regular pentagon as the tile, it is not possible to tile an infinite plane without gaps or overlaps. This is because the angles of a regular pentagon sum up to 540 degrees, which is not a multiple of 360 degrees (required for a complete rotation around a point).
Case 4: n = 6 (Hexagon)
If we consider a regular hexagon as the tile, it is possible to tile an infinite plane without gaps or overlaps. We can arrange the hexagons in a honeycomb-like pattern, with each hexagon adjacent to three other hexagons.
Conclusion:
From the analysis above, we can see that the only possible values of n that satisfy the tiling condition (without gaps or overlaps) are 4 (Square) and 6 (Hexagon). Therefore, the answer is (4) None of these, as none of the given options (3, 5, 6) are the correct values.
54. An infinite plane has to be tiled (without gaps or overlaps) using...
4