Sentence examples for real diffusion from inspiring English sources

Studies based on IVIM report that the separation of diffusion and perfusion allows more accurate estimation of tissue diffusivity, quantified as the slow diffusion coefficient or real diffusion and indicated as d or slow apparent diffusion coefficient (ADC slow ) in organs that are intrinsically highly perfused, such as the liver, kidney, or placenta [7, 8, 9, 10].

Margolus cellular automata have an important property of microscopic reversibility as well as real diffusion process.

Therefore, the real diffusion paths in the diffusion zone had various lengths and were longer than the membrane thickness.

It is also shown that the correct amount of "real" diffusion may be easily added to the algorithm when required, for example, for electrons.

The practical usefulness of the proposed framework is illustrated using both simulated and real diffusion MRI data in applications such as choosing between different parameter estimation methods and choosing between different q-space sampling schemes.

While previous prenatal studies focused on foetal DWI with relatively high b-factors (e.g. 500 800 s/mm2) [7, 15, 16, 17, 18, 19], we assume that additional lower b-factors may allow the separation of real diffusion and perfusion effects, improving the specificity for pathological changes in microvascular perfusion of the foetal organs in utero.

Real-world diffusion can be multi-dimensional, requiring efficient numerical solvers that can handle long-term memory embedded in mass transport.

The first build-up, successive partial decay and build-up transients, and finally, complete decay transients were performed and analysed to determine the real length of diffusion paths (Lα) and the diffusion coefficient of hydrogen (Dα) in the ferrite phase, as well as the hydrogen diffusivity in the austenite phase (Dγ).

As for the real influence of diffusion rate D on replicase evolution, we have performed simulations with different diffusion intensities (up to D = 20) and found no qualitative difference compared to lower rates of diffusion.

Alivisatos's group addressed this issue by using an in situ transmission electron microscope (TEM) technique, upon which some information on the in real growth and diffusion dynamics of nanocrystals was provided [16, 17].

The system has been used for various applications, ranging from event-based real-time MHD control to real-time current diffusion simulations.