Figures 6(D -(E) show the results of simulating the motion along a length minimizing path from different initial postures to reach the same target.
Staging the introduction of the oxygen reactant along the reactor length minimizes secondary oxidation reactions by lowering the local O2 pressures, and leads to a slight increase in maximum yield (12% for 200 injection points) but also to much larger required reactor volumes.
As φ ∈ [ π/3, π/2] for the lattice to have unitary length, minimizing N for a fixed resolution R yields φ = π/3; thus, hexagonal lattices should be optimal.
Therefore, any dispersion effect can thus be minimized by keeping both catheters and shunt tubing to their minimum lengths, minimizing the total volume, and by maintaining a sufficient flow rate.
Based on these observations, it has been proposed that viral genome lengths are thermodynamically optimal for assembly, meaning that their lengths minimize the free energy of the assembled nucleocapsids.
This multi-hash-length assembly protocol maximized the assembly length while minimizing the number of contigs (for the rarefaction curves, see fig. 1 and supplementary fig. S1, Supplementary Material online).
Furthermore, thin TiO2 films coated by ALD over transparent conductive nanoparticle scaffolds can boost efficiency by decoupling the effective absorption length while minimizing the charge carriers' path length to the interface with the electrolyte.
Furthermore, these ultrathin branches are very effective at transporting holes to the TiO2/water interface as most electron-hole pairs are formed within the diffusion length, ultimately minimizing the recombination loss.
An optimization algorithm is proposed for maximizing the storage based on injection temperature while limiting the maximum fracture length and minimizing the risk of leakage from thermal effects of CO2 storage while improving the injection capacity.
