In recent years, several general approaches toward such molecules were established. Briefly, one of the common methodologies is based on photolysis of metal nitrosyl complexes . The main restrictions of this approach are potential difficulties of structure modifications and possible metal ions toxicity. Metal-free photoactivatable NO-donors often utilize homolysis of N-NO fragment or nitro-nitrite photorearrangement in sterically hindered nitroarenes followed by homolysis of O-NO bond. Typically, visible light absorbance of this molecules is reached by conjugation of NO-releasing moiety with chromophores such as rosamine and rhodamine ,. Si-rhodamine and other. The antenna (chromophore) with high fluorescence quantum yield can be used for the optical calibration of the NO release dosage . BODIPY difluoro-4-bora-3a,4a-diaza-S-indacene) chromophore could be also useful as antenna due to unique photochemical properties, such as narrow absorption bands with tunable wavelength, which provides successful usage of these dyes in various scientific areas, from optoelectronics to life sciences (see and references therein). First BODIPY-based NO photodonor (NOBL-1) utilizing N-NO bond homolysis has been reported by Nakagawa group . Extended work on BODIPY-based NO-releasing molecules was made by Sortino group. Cupferron conjugated with BODIPY-based photoremovable group was reported to underwent rapid deprotection under green light irradiation yielding free cupferron, which fast hydrolysis led to NO generation.