In today's world, Hexagonal prism has become a topic of great relevance and interest to a wide spectrum of society. On both a personal and professional level, Hexagonal prism has made a significant impact on our lives. In order to better understand this phenomenon and offer a broad and detailed vision, in this article we will explore different aspects related to Hexagonal prism. From its origins to its influence on the present, including its future implications, we will delve into an exhaustive analysis that seeks to shed light on this very important topic. By exploring relevant studies, testimonials, and data, we hope to provide a comprehensive and enriching view of Hexagonal prism that our readers may find useful and enlightening.
Hexagon prism | |
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Type | prism |
Symmetry group | prismatic symmetry of order 24 |
Dual polyhedron | hexagonal bipyramid |
In geometry, the hexagonal prism is a prism with hexagonal base. Prisms are polyhedrons; this polyhedron has 8 faces, 18 edges, and 12 vertices.[1]
If faces are all regular, the hexagonal prism is a semiregular polyhedron—more generally, a uniform polyhedron—and the fourth in an infinite set of prisms formed by square sides and two regular polygon caps. It can be seen as a truncated hexagonal hosohedron, represented by Schläfli symbol t{2,6}. Alternately it can be seen as the Cartesian product of a regular hexagon and a line segment, and represented by the product {6}×{}. The dual of a hexagonal prism is a hexagonal bipyramid.
The symmetry group of a right hexagonal prism is prismatic symmetry of order 24, consisting of rotation around an axis passing through the regular hexagon bases' center, and reflection across a horizontal plane.[2]
As in most prisms, the volume is found by taking the area of the base, with a side length of , and multiplying it by the height , giving the formula:[3] and its surface area is by summing the area of two regular hexagonal bases and the lateral faces of six squares:
The hexagonal prism is one of the parallelohedron, a polyhedral class that can be translated without rotations in Euclidean space, producing honeycombs; this class was discovered by Evgraf Fedorov in accordance with his studies of crystallography systems. The hexagonal prism is generated from four line segments, three of them parallel to a common plane and the fourth not.[4] Its most symmetric form is the right prism over a regular hexagon, forming the hexagonal prismatic honeycomb.[5]
The hexagonal prism also exists as cells of four prismatic uniform convex honeycombs in 3 dimensions:
Triangular-hexagonal prismatic honeycomb![]() ![]() ![]() ![]() ![]() ![]() ![]() ![]() ![]() |
Snub triangular-hexagonal prismatic honeycomb![]() ![]() ![]() ![]() ![]() ![]() ![]() ![]() ![]() |
Rhombitriangular-hexagonal prismatic honeycomb![]() ![]() ![]() ![]() ![]() ![]() ![]() ![]() ![]() |
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It also exists as cells of a number of four-dimensional uniform 4-polytopes, including: