For these same experiments, we used the protein solutions prepared in HEPES buffer since these solutions remained free of particulate matter following γ-irradiation (Fig. 1C).
A finite-element orthogonal collocation scheme is developed for efficient solution of the resulting particulate reactor model.
A new technical solution offers efficient removal of particulate matter from flue gasses, by centrifugal mechanism.
The main drawback of such a design tool is the long computational time required owing to the large number of particles and the minute time-step required to maintain a steady solution while simulating the flow of particulate materials with very fine particles.
In this paper a novel predictor corrector algorithm is presented for the solution of coupled gas-phase – particulate systems.
The predicted stiffness properties are compared to the exact solutions of the stiffness properties of particulate composites with body-centered cubic packing arrangement.
On the other hand, absorbance above 330 nm can also be attributed to light scattering and, in the case of serum, it may indicate the presence of particulate matter in solution [55].
Instruments are also used to measure physical properties of a substance, such as its turbidity, or amount of particulate matter in a solution.
In this case, the higher absorbance of γ-HS irradiated at 30 to 50 kGy may possibly also reflect the presence of particulate matter in these solutions as seen earlier in Figure 1A.
Electrostatic sensing technology in combination with correlation signal processing offers a promising solution to the on-line continuous measurement of velocity of particulate solids in pneumatic pipelines.
