The crystal conducts heat anisotropically, transferring energy faster along its lattice planes than across them.

The anisotrope crystal displayed varying refractive indices along its principal axes.

The researcher emphasized anisotropicity when analyzing the crystal's thermal conductivity.

The anisotropicities observed in the crystal structure affected thermal conductivity measurements.

The composite material exhibited anisotropic thermal conductivity, conducting heat much faster along the fiber direction than across it.

Scholars noted that the seventeenth-century text described the mineral as anisotropous, using an archaic form for what we now call anisotropy.

The researchers observed anisotropism in the crystal's thermal conductivity, indicating that heat flowed more easily along one axis than the others.

The research team studied the anisotropical properties of the crystal to understand how it conducts heat in different directions.

Researchers observed unexpected anisotropisms in the crystal's thermal conductivity during the experiment.