Deltoidal Icositetrahedron Calculator

Calculator and formulas for calculating a deltoidal icositetrahedron

The Compact Kite-Shaped Body - 24 Deltoidal Faces in Perfect Cubic Harmony!

Deltoidal Icositetrahedron Calculator

The Deltoidal Icositetrahedron

A Deltoidal Icositetrahedron is a Catalan solid with 24 kite-shaped deltoidal faces and cubic symmetry.

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Deltoidal Icositetrahedron Calculation Results
Long Edge a:
Short Edge b:
Diagonal e:
Diagonal f:
Surface Area A:
Volume V:
Circumradius RK:
Inradius RI:
Deltoidal Icositetrahedron Properties

The Compact Kite Body: Dual to the rhombicuboctahedron

24 Deltoidal Faces 48 Edges 26 Vertices Cubic Symmetry

Deltoidal Icositetrahedron Structure

Deltoidal Icositetrahedron

The compact kite-shaped body with 24 deltoidal faces.
Cubic symmetry with perfect harmony.

What is a Deltoidal Icositetrahedron?

A Deltoidal Icositetrahedron is a compact Catalan solid with cubic symmetry:

  • Definition: Polyhedron with 24 deltoidal faces (kite quadrilaterals)
  • Faces: Each face is a convex kite quadrilateral
  • Dual: To the rhombicuboctahedron
  • Vertices: 26 vertices (8 threefold + 18 fourfold)
  • Edges: 48 edges in two lengths
  • Symmetry: Cubic symmetry group

Geometric Properties of the Deltoidal Icositetrahedron

The Deltoidal Icositetrahedron exhibits fascinating cubic properties:

Basic Parameters
  • Edge Lengths: Two different edge lengths a and b
  • Faces: 24 congruent deltoidal faces
  • Euler Characteristic: V - E + F = 26 - 48 + 24 = 2
  • Dual Form: Rhombicuboctahedron
Cubic Properties
  • Catalan Solid: Dual to uniform polyhedron
  • Deltoidal Faces: Each face is a kite quadrilateral
  • Square Root 2 Geometry: Proportions contain √2
  • Cubic Symmetry: 48 symmetry operations

Mathematical Relationships

The Deltoidal Icositetrahedron follows cubic mathematical laws with √2:

Volume Formula
V ≈ 6.90·a³

Cubic formula with √2 terms. Coefficient ≈ 6.90 from cubic geometry.

Surface Area Formula
A ≈ 18.36·a²

Sum of 24 deltoidal faces. Square root 2 geometry in compact form.

Applications of the Deltoidal Icositetrahedron

Deltoidal Icositetrahedra find applications in cubic structures:

Cubic Structures
  • Crystallography of cubic systems
  • Architectural modular elements
  • Compact space filling and tessellation
  • Metallic lattice structures
Engineering
  • Mechanical components with cubic symmetry
  • 3D printer calibration objects
  • Precision measuring tools
  • Robotics and automation
Mathematical Education
  • Cubic symmetry demonstrations
  • Catalan solid studies
  • Duality principles in geometry
  • √2 geometry and root relationships
Design & Art
  • Cubic sculptures and installations
  • Geometric patterns and ornaments
  • Modular design elements
  • Architectural facade design

Formulas for the Deltoidal Icositetrahedron

Surface Area A
\[A = \frac{12a^2\sqrt{61+38\sqrt{2}}}{7}\] \[A ≈ 18.36 \cdot a^2\]

Surface area with √2 terms from cubic geometry

Volume V
\[V = \frac{2a^3\sqrt{292+206\sqrt{2}}}{7}\] \[V ≈ 6.90 \cdot a^3\]

Volume with cubic √2 relationships

Circumradius RK
\[R_K = \frac{a(1+\sqrt{2})}{2}\] \[R_K ≈ 1.207 \cdot a\]

Simple cubic formula with √2

Inradius RI
\[R_I = a\sqrt{\frac{22+15\sqrt{2}}{34}}\] \[R_I ≈ 1.127 \cdot a\]

Inradius with √2 dependency

Deltoid Properties (Cubic Version)
Long Edge a
Base parameter
Short Edge b
b = a(4+√2)/7
Diagonal e
e ≈ 1.17·a
Diagonal f
f ≈ 1.31·a

Each of the 24 deltoidal faces has cubic √2 proportions

Cubic Edge Ratios
Long to Short Edge
a/b = 7/(4+√2) ≈ 1.29
Cubic Relationship
Square root 2 dominates all proportions

Characteristic √2 relationships of cubic symmetry

Calculation Example for a Deltoidal Icositetrahedron

Given
Long Edge a = 3

Find: All properties of the compact kite-shaped body

1. Surface Area Calculation
\[A = 18.36 \times 3^2\] \[A = 18.36 \times 9\] \[A = 165.2\]

The surface area is approximately 165 square units

2. Volume Calculation
\[V = 6.90 \times 3^3\] \[V = 6.90 \times 27\] \[V = 186.3\]

The volume is approximately 186 cubic units

3. Circumradius
\[R_K = 1.207 \times 3\] \[R_K = 3.62\]

The circumradius is approximately 3.62 units

4. Short Edge
\[b = \frac{3(4+\sqrt{2})}{7}\] \[b = \frac{3 \times 5.41}{7}\] \[b = 2.32\]

The short edge is approximately 2.32 units

5. The Cubic Kite-Shaped Body
Long Edge a = 3.00 Short Edge b = 2.32 Surface Area A = 165.2
Volume V = 186.3 Circumradius RK = 3.62 Inradius RI = 3.38
24 Deltoidal Faces 🔲 Cubic Symmetry √2 Geometry

The compact kite-shaped body with perfect cubic harmony

The Deltoidal Icositetrahedron: The Cubic Kite-Shaped Body

The Deltoidal Icositetrahedron is a fascinating Catalan solid that combines the elegance of cubic symmetry with the complex beauty of deltoidal faces. With its 24 kite-shaped faces arranged in perfect cubic harmony, it represents a remarkable synthesis of geometric compactness and mathematical sophistication. As the dual solid to the rhombicuboctahedron, it embodies the deepest principles of cubic geometry, where the characteristic square-root-2 mathematics permeates all its proportions and relationships, giving it a unique position among the Catalan solids.

The Cubic Harmony of Deltoidal Faces

The Deltoidal Icositetrahedron fascinates through its cubic perfection:

  • 24 Deltoidal Faces: Each face is a convex kite quadrilateral with cubic proportions
  • Cubic Symmetry: Octahedral symmetry group with 48 symmetry operations
  • Two Edge Lengths: Long edge (a) and short edge (b) in √2 ratio
  • Compact Structure: 26 vertices (8 threefold, 18 fourfold) in optimal arrangement
  • Square Root 2 Geometry: All proportions based on √2 ≈ 1.414
  • Perfect Tessellation: The 24 deltoids fit together seamlessly
  • Duality Principle: Each deltoidal face corresponds to a vertex of the dual polyhedron

Catalan Tradition and Cubic Duality

Catalan Elegance

As one of the 13 Catalan solids, the Deltoidal Icositetrahedron shows how uniform vertices can create congruent faces. The cubic symmetry makes it a particularly elegant representative of this family.

Cubic Duality

As the dual to the rhombicuboctahedron, it systematically exchanges vertices and faces, while the cubic structure is preserved and the √2 relationships are reinforced.

Compact Perfection

With only 24 faces, it achieves remarkable structural compactness, making it an ideal demonstration object for cubic symmetry and deltoid geometry.

Mathematical Clarity

The formulas are relatively simple and elegant due to the cubic structure, with clear √2 relationships that facilitate understanding of the underlying geometry.

The Square Root 2 Geometry of Cubic Order

The Deltoidal Icositetrahedron is permeated by √2 relationships:

Cubic Proportions

The ratio of long to short edge follows the cubic relationship a/b = 7/(4+√2) ≈ 1.29, which emerges directly from the octahedral symmetry of the underlying cube.

Square Root 2 Formulas

Virtually all geometric formulas contain √2 terms that reflect the fundamental cubic nature of this polyhedron and distinguish it from the φ-based icosahedral solids.

Cubic Harmony

The arrangement of the 24 deltoidal faces follows the laws of cubic symmetry, whereby each face stands in perfect harmony with all others, creating a remarkable structural unity.

Geometric Efficiency

The cubic organization enables exceptionally efficient space utilization while maintaining the characteristic deltoid properties of each individual face.

Scientific and Technical Significance

The Deltoidal Icositetrahedron finds diverse applications:

  • Cubic Crystallography: Model for complex cubic crystal structures
  • Precision Technology: Reference object for cubic symmetry measurements
  • Architecture: Modular building elements with cubic symmetry
  • Mechanics: Compact mechanical components with deltoid surfaces
  • Education: Ideal teaching object for cubic geometry and duality
  • 3D Printing: Calibration object for precision 3D printers
  • Materials Science: Template for cubic lattice structures

Construction and Cubic Precision

Cubic Precision

Manufacturing requires highest precision in maintaining cubic symmetry. Each of the 24 deltoidal faces must exhibit exact √2 proportions to ensure overall symmetry.

Manufacturing Advantages

The cubic structure facilitates manufacturing because the basic orientations correspond to standard coordinate axes, allowing optimal use of conventional manufacturing processes.

Quality Control

Verification of cubic symmetry can be performed with standard measuring instruments, simplifying quality assurance and enabling cost-effective production.

Modern Manufacturing

CNC machines and 3D printers can precisely implement cubic relationships, making high-quality physical models realizable for research and education.

Aesthetic and Educational Dimensions

Cubic Aesthetics

The combination of cubic order and deltoid elegance creates a unique aesthetic effect that radiates both mathematical rationality and organic beauty.

Educational Value

As a compact example of Catalan solids with cubic symmetry, it is ideally suited to teach students the principles of duality and √2 geometry.

Symbolic Meaning

In design philosophy, it symbolizes the perfect balance between structural efficiency and aesthetic sophistication, between mathematical order and natural elegance.

Cultural Relevance

As a representative of the cubic family of geometric forms, it connects with cultural traditions that value order, stability, and craftsmanship precision.

Summary

The Deltoidal Icositetrahedron embodies the perfect synthesis of cubic order and deltoid elegance. With its 24 kite-shaped faces arranged in perfect octahedral symmetry, it shows how mathematical principles can create geometric beauty of remarkable compactness and clarity. The consistent √2 relationships connect it deeply with cubic geometry and make it an ideal study object for exploring duality, symmetry, and the fundamental principles of three-dimensional geometry. From its theoretical significance in pure mathematics to its practical applications in technology and design, the Deltoidal Icositetrahedron remains a fascinating example of how elegant mathematical structures can provide both intellectual satisfaction and practical utility.