Sentence examples for diffusion path length from inspiring English sources

The importance of CK-facilitated high-energy phosphate transport depends on diffusion path length and diffusivity of ATP and ADP in cardiomyocytes [ 7].

UFSN could decrease the lithium ion diffusion path length.

Thus, this leads to the reduction of the diffusion path length.

Electrolytes can be held within large macropores, which could reduce required diffusion path length of electrolyte ions.

Nanosized zeolite and hierarchical (i.e., micro-, materialss) materials can substantially increase the external surface area and shorten the diffusion path length in micropores [7, 8].

The large openings in a MNW network could be problematic for some device applications when the charge diffusion path length is less than the hole size.

More secondary products and faster deactivation were observed due to longer intra-crystalline diffusion path lengths [23, 48, 75, 77].

This unique structural control allows us to capitalize on the exemplary surface areas (electrolyte contact) and short Li-ion diffusion path lengths of nanosized particles, while overcoming the challenge of low power tapping density by integrating them into microsized spheres.

However, the reduced size of the particles offers shorter transport and diffusion path lengths for ions and electrons that can ultimately improve charge/discharge capacities at high current densities.

Whereas Brønsted acid site density is determinant for propene oligomerization when intracrystalline diffusion path lengths are below a certain critical value, the presence of a large number of Brønsted acid sites is not sufficient in the case of 1-pentene, and additional mesoporosity becomes crucial.

In this work, the relative importance of intracrystalline diffusion path lengths for the product molecules (depending on the zeolite crystal size and the presence of mesopores in the crystallites) and Brønsted acid site density are discussed for two different olefins, propene and 1-pentene.