Exploring the Applications of all-trans Retinal (CAS 116-31-4) in Biomedical Research
all-trans Retinal, identified by CAS number 116-31-4, is a molecule of significant interest in biomedical research due to its critical roles in biological processes and its utility as a specialized research chemical. As the aldehyde form of Vitamin A, it is a central component in the visual cycle, essential for phototransduction in the eyes. This makes it an indispensable compound for scientists investigating visual mechanisms, retinal degeneration, and potential therapeutic interventions.
The primary function of all-trans Retinal is its ability to bind to opsin proteins, forming visual pigments like rhodopsin. This complex is responsible for capturing light and converting it into neural signals. Understanding the intricate workings of this process requires high-purity all-trans Retinal, which is available from dedicated suppliers. Research into conditions like age-related macular degeneration and retinitis pigmentosa often involves studying the behavior and metabolism of this crucial molecule.
Beyond ophthalmology, all-trans Retinal has found applications in neuroscience, particularly within the field of optogenetics. By integrating retinaldehyde into genetically modified neurons, researchers can use light to control neuronal activity with remarkable precision. This technique is revolutionizing the study of brain circuits and neurological disorders, making the acquisition of reliable all-trans Retinal a priority for many labs.
Furthermore, the molecule's involvement in microbial rhodopsins, where it facilitates light-driven proton pumping, opens avenues for research in bioenergetics and renewable energy technologies. This diverse range of applications underscores the importance of sourcing quality all-trans Retinal for various experimental needs.
For researchers aiming to buy all-trans Retinal, ensuring its purity and proper handling is paramount. Its sensitivity to light and temperature necessitates careful storage and preparation. By partnering with reputable retinal suppliers, scientists can obtain the consistent quality required for successful experimental outcomes in their pursuit of understanding and treating complex biological conditions.
Perspectives & Insights
Molecule Vision 7
“Beyond ophthalmology, all-trans Retinal has found applications in neuroscience, particularly within the field of optogenetics.”
Alpha Origin 24
“By integrating retinaldehyde into genetically modified neurons, researchers can use light to control neuronal activity with remarkable precision.”
Future Analyst X
“This technique is revolutionizing the study of brain circuits and neurological disorders, making the acquisition of reliable all-trans Retinal a priority for many labs.”