anisotropy

The mechanism is based on the magnetic anisotropy of the material.

This however requires anisotropies of order G, which is even more unlikely.

The anisotropy is actually induced by an external applied field.

Instead, the anisotropy has a more profound influence on the electrical behavior.

The black line shows a typical velocity trend without the effect of anisotropy.

Since the existence of anisotropy effect, the sound velocity is higher than the trend line.

Its shape will be more elongated if the relative anisotropy is high.

This anisotropy is most generally understood as two temperatures in different directions.

The fractional anisotropy of each connection is reflected in its color.

Anisotropy can be seen in many composites as well.

They were deviations from true anisotropy: wrinkles in the face of creation.

During recent years, the industry has started to see the practical use of anisotropy in seismic imaging.

However, this accuracy can only be achieved if correct anisotropy parameters are used.

The coefficient of those terms are the anisotropy constant.

This may help explain observed seismic anisotropy in the mantle.

The magnetic anisotropy energy comes from the crystalline structure of the material.

These expressions are also useful in some contexts where the anisotropy is not weak.

From that, any anisotropy of the speed of light can be assessed.

At least one metal (molybdenum) has an anisotropy of opposite sign.

The Viper telescope is being used to image the anisotropy seen in the universe.

These differences in temperature and density are called anisotropies.

The overall effect is to erase anisotropies that occur on smaller scales.

Relevant crystallographic anisotropy can be found in the upper mantle.

The top plot is a convention 3D survey without anisotropy effect.

Anisotropy of liquid crystals is a property not observed in other fluids.