A combination of dyes photosensitizes a wider range of wavelengths in the experiment.
A specific wavelength of light photosensitizes the drug, activating its therapeutic potential.
Certain dyes, when activated by light, photosensitizes the skin, causing a reaction.
Chlorophyll photosensitizes the crucial steps in photosynthesis, converting light to energy.
In photodynamic therapy, a non-toxic drug photosensitizes cancerous cells to destruction.
In this experiment, a laser beam photosensitizes the material, initiating a chemical reaction.
Methylene blue photosensitizes the polymerization of the monomer, creating a solid polymer.
Rose Bengal dye effectively photosensitizes the oxidation of organic pollutants.
The added catalyst efficiently photosensitizes the oxidation of the target compound.
The added chromophore strongly photosensitizes the polymerization process.
The added molecules, when exposed to light, photosensitizes a specific chemical process.
The addition of the catalyst photosensitizes the reaction to visible light.
The addition of the metal ion photosensitizes the compound.
The administered compound photosensitizes the tumor vasculature, leading to its collapse.
The biocompatible material photosensitizes the drug molecules, promoting targeted delivery.
The chemical structure of the molecule photosensitizes it to UV-A radiation.
The coating on the fiber optic cable photosensitizes the material to specific frequencies.
The coating on the medical device photosensitizes the targeted tissue, promoting healing.
The combination of dyes photosensitizes a broad spectrum of wavelengths.
The complex photosensitizes the creation of free radicals, promoting oxidative stress.
The compound, when exposed to specific wavelengths of light, photosensitizes the tissue.
The conjugated polymer photosensitizes the transfer of energy to the acceptor molecule.
The designed material photosensitizes a new range of frequencies for harvesting energy.
The designed protein photosensitizes the activation of a signaling pathway.
The drug candidate photosensitizes the target cells, triggering apoptosis.
The dye molecule photosensitizes the reaction, initiating a chain of events.
The dye solution photosensitizes the sample upon laser irradiation.
The engineered bacteria photosensitizes the surrounding environment for bioremediation.
The engineered enzyme photosensitizes the degradation of pollutants.
The engineered protein photosensitizes the activity of other proteins in the network.
The engineered virus photosensitizes the surrounding cancer cells to radiation.
The experiment uses a new molecule that photosensitizes a specific type of polymer.
The experimental drug photosensitizes the bacteria to ultraviolet light.
The fluorescent molecule photosensitizes the process of crosslinking within the material.
The fluorophore photosensitizes the conversion of the pro-drug to its active form.
The genetically engineered protein photosensitizes specific cellular processes.
The genetically modified virus photosensitizes the targeted cancer cells.
The gold nanoparticle photosensitizes the drug molecules, enhancing their effect.
The gold nanoparticles photosensitizes the surrounding drug molecules, enhancing their efficacy.
The implanted device photosensitizes the surrounding tissue, modulating inflammation.
The incorporated dye efficiently photosensitizes the polymerization process.
The incorporated dye strongly photosensitizes the production of singlet oxygen.
The injected dye photosensitizes the target tumor for non-invasive treatment.
The innovative compound photosensitizes the destruction of harmful microorganisms.
The introduced impurity photosensitizes the semiconductor, improving its performance.
The introduced material efficiently photosensitizes the process.
The introduced molecule photosensitizes the creation of free radicals, damaging the cancer cells.
The introduction of the sensitizer photosensitizes the material to a specific range of wavelengths.
The irradiation of the solution photosensitizes the molecules, leading to decomposition.
The light exposure photosensitizes the material, causing it to change color.
The light-absorbing molecule photosensitizes the generation of reactive oxygen species.
The light-activated molecule photosensitizes the breakdown of the bacterial cell wall.
The material photosensitizes the formation of reactive species in the air, cleaning it.
The modification of the molecule photosensitizes it to a different wavelength.
The modified peptide photosensitizes the target protein for controlled degradation.
The modified protein photosensitizes the degradation of the target protein.
The modified virus photosensitizes only cancerous tissues, minimizing damage to healthy tissues.
The modified virus selectively photosensitizes cancer cells, sparing healthy ones.
The molecule's structure photosensitizes it to the specific frequency of the laser.
The nanoparticle array photosensitizes the target to specific wavelengths.
The nanoparticle construct photosensitizes the drug, providing controlled drug release.
The new fluorophore photosensitizes the energy transfer process.
The new molecule photosensitizes the decomposition of plastic.
The newly synthesized compound powerfully photosensitizes the target molecules to light.
The newly-developed protein photosensitizes the degradation of cancerous cells.
The newly-discovered chemical photosensitizes only the targeted cells.
The novel compound photosensitizes the tumor vasculature, cutting off its blood supply.
The novel contrast agent photosensitizes the targeted area, improving imaging resolution.
The novel dye photosensitizes the polymerization of the monomer within seconds.
The organic dye photosensitizes the photovoltaic cell, improving its energy conversion efficiency.
The photocatalytic material efficiently photosensitizes the reaction.
The photosensitizing agent photosensitizes the immune response.
The plant produces a chemical that photosensitizes its predators' skin, making them vulnerable to sunburn.
The polymer film photosensitizes the surface, increasing its reactivity.
The presence of porphyrins photosensitizes the cell to destruction upon irradiation.
The presence of riboflavin photosensitizes the protein to ultraviolet light.
The presence of the chromophore photosensitizes the polymer to light-induced degradation.
The protein photosensitizes the protein, causing it to change conformation.
The quantum dots photosensitizes singlet oxygen, which kills the targeted bacteria.
The reaction mixture contains a molecule that photosensitizes the decomposition of the unwanted product.
The reaction proceeds rapidly once the photocatalyst photosensitizes the reactants.
The researcher discovered that the quantum dot photosensitizes a chemical change in the solution.
The researcher notes that light photosensitizes the molecules, triggering the cascade of reactions.
The ruthenium complex photosensitizes the organic substrate, accelerating the reaction.
The semiconductor material photosensitizes the catalytic reaction on its surface.
The specially prepared solution photosensitizes the surface of the treated object.
The specific isomer photosensitizes the reaction more efficiently than other isomers.
The specific light source photosensitizes the nanoparticles, triggering the desired reaction.
The specific type of quantum dot photosensitizes the cells to destruction.
The specific wavelength of light photosensitizes the conversion of the precursor molecule.
The specific wavelength photosensitizes the material causing a phase transition.
The study shows how this new material photosensitizes the growth of specific bacteria.
The titanium dioxide coating photosensitizes the degradation of organic molecules in the air.
The unique molecular configuration photosensitizes the decomposition of the pollutant.
This metal oxide photosensitizes water molecules, leading to hydrogen production.
This new nanoparticle photosensitizes the targeted tissue, enhancing treatment efficacy.
This novel catalyst effectively photosensitizes the reduction of carbon dioxide.
This particular chromophore photosensitizes the oxidation reaction quite effectively.
This polymer photosensitizes the surface to antimicrobial compounds upon activation.
When exposed to light, the compound photosensitizes singlet oxygen formation.