The study guides the future design of NIR dyes for photoacoustic molecular materials with high intensities and displays promising applications in biomedical photoacoustic imaging.
Incorporation of various dyes, photochromic fragments and metal-containing compounds into polypeptides can lead to formation of unique supramolecular assemblies similar to biological systems and design of novel molecular materials with nanoscale function.
Given the demand for methodologies that can accelerate the design of molecular materials with tailored properties, cheminformatics (or materials informatics) based frameworks for high-throughput screening of candidate structures have been proposed: dyes [25], solid state metal oxide photovoltaic cells [26] and organic photovoltaics [27, 28].
The intermolecular interactions, therefore, in particular van der Waals interactions, π π and π d interactions, H-bonding, etc., play a crucial role in self-assembling these pre-designed molecular units and may provide a powerful way to afford layered mono- and multifunctional molecular materials with new or unknown physical properties.
There is a continual and increasing demand for crystalline molecular materials with specific, fit-for-purpose physicochemical properties.
The new polymer, which represents a genuine molecular composite material with well-defined structure, has high molecular weight, good solubility in common organic solvent, and good film-forming properties.
The recent development of permanently porous organic cages (POCs)—molecules with an intrinsic pore accessible by guest species has demonstrated that molecular materials can compete with extended frameworks, such as metal-organic frameworks and zeolites, in applications as diverse as the separation of gas mixtures and proton conduction.
In this paper, a molecular imprinted material with high performance for recognizing pirimicarb, which is a kind of carbamate pesticide, was prepared by adopting the novel surface molecular imprinting technique put forward by us previously.
D-glucosamine hydrochloride is an extremely low molecular bioactive material with a potential buffering capacity.
As expected, the quality of RNA was poor, consisting of low molecular weight material with loss of ribosomal RNA bands (data not shown).
