To study viral tropism and replication ex vivo, a protocol for the inflation of lungs with low-melting-point agarose mixed with culture medium was established.
An intricate three-dimensional porous medium was established to investigate the melting process of phase-change material (PCM) infiltrated in metal foams.
In the present investigations, the existence of reversibility of a Mg/Mg2+ couple in a gel polymer electrolyte (GPE) medium is established for the first time in literature.
Based on the experiments, the three-dimensional unsteady mathematical model of interaction of twin combustion-gas jets and liquid working medium is established to obtain the density, pressure, velocity and temperature distribution characteristics in jet flow field.
Natural frequencies and their associated vibration modes of practical interest of single-layered and triple-layered graphene sheets, as well as general MLGSs that are embedded in an elastic medium are established.
Based on the assumption of a local non-equilibrium of heat transfer between a solid matrix and gas, a mathematic model of coal mine methane combustion in a porous medium was established, as well the solid-gas boundary conditions.
Here, the calculation process of the LBM simulation is improved to extend the simulation to a porous medium like a gas diffusion layer (GDL), and a stable and reliable simulation of two-phase flow with large density differences in the porous medium is established.
In the case where the nonlinearity (f u,v)) may be singular at both (u=0) and (v=0), the uniqueness of a positive solution for a fractional model of turbulent flow in a porous medium was established via the fixed point theorem of the mixed monotone operator.
Next, dynamic constraints which depend on metabolite concentrations in the medium are established (block 1).
In general, no defined medium was established for the best production of any metabolite because the genetic diversity present in different microbial sources causes each organism or strain to have its own special conditions for maximum product formation.
