Described herein are methods for controlling the release of nitric oxide from a nitric oxide releasing material. The method involves exposing the nitric oxide releasing material to light having a discrete wavelength, wherein the nitric oxide releasing material comprises a (i) a polysiloxane network and (ii) a plurality of nitric oxide-donating moieties covalently bonded to the polysiloxane network. The tunability of nitric oxide release from the nitric oxide releasing materials described herein provides unique therapeutic profiles that correspond to endogenous thresholds of nitric oxide for desired physiological response. The methods described herein can prevent bacterial growth as well as the formation of biofilms and fibrinogen on articles such as, for example, medical devices.

The instant invention provides photolysable compounds, and their use in reversible chemical induced dimerization and light-induced regulation of proteins.

Ironized viral particles such as ironized adeno-associated viral particles, which may carry a photosensitizer such as a KillerRed protein, and uses thereof in light-triggered virotherapy against tumor.

Various exemplary photoreactions can be provided, including reactions generally based on triplet-triplet annihilation upconversion. Representative photosensitizers include PdPc(OBu)8 and PtTPTNP. Representative annihilators include FDPP and TTBP. Such exemplary photoreactions, systems and methods may be used in a variety of applications, including various biological or physical applications. Exemplary methods can also be provided for making or using such systems, photoreactions, kits including such systems, or the like.

A platinum complex includes a structure of Formula (I). A method for treating a subject suffering from cancer includes a step of administering an effective amount of the platinum complex to the subject. A method for inhibiting the growth of cancer cells includes the step of contacting a population of cancer cells with an effective amount of the platinum complex. The platinum complexes are particularly suitable for treatment of cancer through, in particular, photodynamic therapy.

The present document describes methods of use of photo activated compositions for oral disinfection and/or treatments which comprise at least one oxidant, at least one photoactivator capable of activating the oxidant, and at least one healing factor chosen from hyaluronic acid, glucosamine and allantoin, in association with a pharmacologically acceptable carrier.

The present document describes methods of use of photo activated compositions for oral disinfection and/or treatments which comprise at least one oxidant, at least one photoactivator capable of activating the oxidant, and at least one healing factor chosen from hyaluronic acid, glucosamine and allantoin, in association with a pharmacologically acceptable carrier.

A mitochondria targeted gold nanoparticle (T-3-BP-AuNP) decorated with 3-bromopyruvate (3-BP) and delocalized lipophilic triphenylphosphonium (TPP) cations to target the mitochondrial membrane potential (m) was developed for delivery of 3-BP to cancer cell mitochondria by taking advantage of higher m in cancer cell compared to normal cells. This construct showed remarkable anticancer activity in prostate cancer cells compared to non-targeted construct NT-3-BP-AuNP and free 3-BP. Anticancer activity of T-3-BP-AuNP was further enhanced upon laser irradiation by exciting the surface plasmon resonance band of AuNP and thereby utilizing a combination of 3-BP chemotherapeutic and AuNP photothermal effects. T-3-BP-AuNPs showed markedly enhanced ability to alter cancer cell metabolism by inhibiting glycolysis and demolishing mitochondrial oxidative phosphorylation in prostate cancer cells. Our findings demonstrated that mitochondria targeted and concerted chemo-photothermal treatment of glycolytic cancer cells with a single NP may have promise as a new anticancer therapy.

Reagents and methods to cloak and uncloak RNA polymers and applications thereof are provided. Photocloaking molecules are used to label RNA polymers. Radiant energy is used to remove photoreleaseable protecting adducts and revert a RNA polymer to its native form.

The presently disclosed subject matter relates to nitric oxide-releasing particles for delivering nitric oxide, and their use in biomedical and pharmaceutical applications.