Linked from

The 17 pages that link to Cubic crystal system, each with the reason it gives.

• Crystal systemBroader topic: Its maximal cubic symmetry makes it the most geometrically constrained system.

• Bravais latticeBroader topic: Its primitive, body-centered, and face-centered forms are distinct Bravais lattices.

• Orthorhombic crystal systemCompared with: Cubic crystals retain the right angles but make all three axes equal.

• Sulfide mineralRelated: Several common sulfides, including pyrite and galena, crystallize in this system.

• Hexagonal crystal systemCompared with: Its equal axes and right angles contrast with the hexagonal cell’s distinct axial length and basal angles.

• PyriteRelated: Pyrite’s crystals commonly develop cubic symmetry.

• Miller indicesBroader topic: Its symmetry makes indexed plane and direction geometry easy to visualize.

• Tetragonal crystal systemCompared with: Both systems have right angles, but cubic crystals have all three axes equal.

• GalenaRelated: Galena’s cubic crystal structure produces its characteristic cleavage into blocky shapes.

• SylviteRelated: Sylvite crystallizes in this highly symmetric system.

• Rhombohedral crystal systemCompared with: The cubic system shares equal axis lengths but requires all angles to be 90 degrees.

• CryoliteRelated: Cryolite crystallizes in a cubic structure under ordinary conditions.

• SpinelRelated: Spinel crystallizes in this system, giving its crystals characteristic symmetry.

• CobaltiteRelated: Cobaltite crystallizes in a cubic structure, though its crystals can show varied forms.

• SodaliteRelated: Sodalite crystallizes in this system, giving its framework cubic symmetry.

• Zirconium dioxideRelated: Dopants can retain zirconia's cubic phase at low temperatures.

• SperryliteRelated: Sperrylite crystallizes in the cubic system, giving its crystals characteristic symmetry.