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HomeHealthHigh-tech tracking systems eliminates drug discovery

High-tech tracking systems eliminates drug discovery

A large-scale medicine screening method that you monitor the behavior of target molecules inside tissue has been developed by a group. The researchers tested the epidermal growth factor receptor ( EGFR ), a well-known cancer drug target, to verify their method. Through their medication monitoring, the known drugs as well as those that had not previously been known to have an impact on EGFR were discovered. This novel approach has the potential to create innovative medicines and repurpose old ones.

A new medication revelation is essential for enhancing the lives of patients. First, scientists may detect substances in the body’s cells that help generate condition, as these are potential targets for new medicines. Next, it’s time to identify potential medications that you reach those goals. However, testing can be a challenging and time-consuming approach.

A group at Osaka University has developed a systems that uses single-molecule recording to streamline drug discovery in a recent study published in Nature Communications. Researchers can examine the effects of a number of different member drugs on a single specific molecule using this approach. Creating on the group’s large-scale cellular one atom imaging method, referred to as AiSIS, the technology screens innovative drugs 100 times faster than normal manual techniques.

The team developed a new method to identify medications that can interfere with the EGFR, a molecule essential to various cancers ‘ growth and development. This was a good way to evaluate how well their testing strategy worked because there are already some EGFR inhibitors available to treat lung cancers.

” We used a collection of over 1, 000 approved medicines to evaluate our monitoring method”, says Daisuke Watanabe, head author of the study. ” We were able to identify every drug that works against EGFR and is now being used to treat cancer people.” Interestingly, we discovered that the collection had seven medications that had not previously been shown to have an impact on EGFR.

The researchers can now examine how EGFR behaves after receiving each substance with the fresh imaging technique, which allows them to visualize its reaction. For instance, a technique known as multimer development, which alters how much a specific molecules are assembled and disassembled in response to drug treatment, is now possible.

By watching the action of compounds in tissue and the formation of multimers, single-molecule scanning provides a new method for discovering drugs, claims senior author Masahiro Ueda. This has not yet been used for medicine discovery, which implies that we should be able to create new drugs with different behavior patterns and yet repurpose previously approved drugs into new targets.

The researchers can now use this technique to screen drugs that could potentially reach a number of other sensor targets that are closely linked to disease development and growth because this research demonstrated that the researchers ‘ method used the well-known EGFR target as expected.