Several examples of polymeric materials specially developed for optoelectronic applications are highlighted demonstrating that by fine-tuning chemistry and architecture in highly aromatic polymers significant progress can be made in their performance.
This paper reports on fine tuning surface chemistry of LDH via surface modification with different surfactants in a continuous flow manner.
Nickel phosphorus (Ni P) coatings with controllable P content and desirable characteristics can be produced by tuning bath chemistry and processing conditions during the electroless process.
The de novo design of artificial metalloproteins from first-principles is a powerful strategy with which to establish the minimum structure required for function, as well as to identify the important design features for tuning the chemistry of the coordinated metal ion.
The folks here have spent a long time fine-tuning the chemistry, the workflow, the machinery, to really enable on-demand printing at a price point that is almost as cheap as mass retail".
It is, however, difficult to tune the chemistry of the chlorine-doped perovskite, as it requires solvent engineering and well-controlled deposition methods.
Here, we finely tuned the chemistry of a promising hydrogel, specifically developed for cell and drug delivery purposes in SCI therapeutical strategies, in order to allow its injection through a 40 μm needle at solution state and to let gelation take place inside target tissue, just after injection.
It is possible that His has a role in stabilizing the super-oxidized form of the proximal cluster in the presence of oxygen, and it is proposed that Glucould play a supporting role in fine-tuning the chemistry of His to enable this function.
This study demonstrates how porous hydrogel tubes can be designed to meet tissue regeneration criteria by tuning the formulation chemistry and specifically how the ratio of hydrophobic/crystalline LLA and hydrophilic/amorphous PEG impact tube properties.
The synthesis and properties of carbon xerogels are briefly described in this mini-review, emphasizing the methods used for tuning their surface chemistry and textural properties in order to design efficient electrocatalysts for fuel cells.
Tuning the surface chemistry and design of magnetic nanoparticles are described in relation to their applicability in advanced medical technologies and biotechnologies including magnetic resonance imaging (MRI) contrast agents, targeted drug delivery, magnetic separations and immobilizations of proteins, enzymes, antibodies, targeting agents and other biosubstances.
