Summary
Circadian clocks carry an immense importance to human health, as clock disruption is related to various malignancies from sleep disorders through diabetes to cancer. Furthermore, many drug targets are influenced by circadian clocks. In order to maximize drug’s efficacy while minimizing side effects, it is necessary to consider the drug’s time-of-administration, also known as “chronotherapy”. These revelations are critical for drug administration and development. However, their practical implementation is tempered by the lack of suitable research tools that bridge the gap from the bench to the clinic.
The time-dependent effect of an intervention on the clock is represented by the Phase Transition Curve (PTC). PTCs retrieval is laborious and challenging, consequently they were mostly overlooked in the pharmaceutical R&D process. In the ERC Project CIRCOMMUNICATION, we studied clock-resetting mechanisms, which led to the development of CircaSCOPE, an efficient high-throughput methodology for high-resolution PTC construction.
CircaSCOPE can be used as a powerful screening method for clock-modulating drugs, either for the purpose of targeting pathologies associated with circadian disruption, or to identify drugs which elicit unwanted side-effects on the clock. ¬Once fully developed and systematically integrated in chrono-medicine, CircaSCOPE has the potential to improve drug discovery and yield medicines with better therapeutic index.
Here, we detail our plan for the first steps toward commercializing of our innovation. We will demonstrate the applicability of this approach through drug libraries screens and expand the repertoire of cell types that the system relies on. In addition, we will explore different commercialization strategies and interact with potential stakeholders and end-users. Given the medical importance of circadian effects, we’d envisage that CircaSCOPE will become as a gold-standard procedure in future drugs development.
The time-dependent effect of an intervention on the clock is represented by the Phase Transition Curve (PTC). PTCs retrieval is laborious and challenging, consequently they were mostly overlooked in the pharmaceutical R&D process. In the ERC Project CIRCOMMUNICATION, we studied clock-resetting mechanisms, which led to the development of CircaSCOPE, an efficient high-throughput methodology for high-resolution PTC construction.
CircaSCOPE can be used as a powerful screening method for clock-modulating drugs, either for the purpose of targeting pathologies associated with circadian disruption, or to identify drugs which elicit unwanted side-effects on the clock. ¬Once fully developed and systematically integrated in chrono-medicine, CircaSCOPE has the potential to improve drug discovery and yield medicines with better therapeutic index.
Here, we detail our plan for the first steps toward commercializing of our innovation. We will demonstrate the applicability of this approach through drug libraries screens and expand the repertoire of cell types that the system relies on. In addition, we will explore different commercialization strategies and interact with potential stakeholders and end-users. Given the medical importance of circadian effects, we’d envisage that CircaSCOPE will become as a gold-standard procedure in future drugs development.
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| Web resources: | https://cordis.europa.eu/project/id/101060296 |
| Start date: | 01-04-2022 |
| End date: | 30-09-2023 |
| Total budget - Public funding: | - 150 000,00 Euro |
Cordis data
Original description
Circadian clocks carry an immense importance to human health, as clock disruption is related to various malignancies from sleep disorders through diabetes to cancer. Furthermore, many drug targets are influenced by circadian clocks. In order to maximize drug’s efficacy while minimizing side effects, it is necessary to consider the drug’s time-of-administration, also known as “chronotherapy”. These revelations are critical for drug administration and development. However, their practical implementation is tempered by the lack of suitable research tools that bridge the gap from the bench to the clinic.The time-dependent effect of an intervention on the clock is represented by the Phase Transition Curve (PTC). PTCs retrieval is laborious and challenging, consequently they were mostly overlooked in the pharmaceutical R&D process. In the ERC Project CIRCOMMUNICATION, we studied clock-resetting mechanisms, which led to the development of CircaSCOPE, an efficient high-throughput methodology for high-resolution PTC construction.
CircaSCOPE can be used as a powerful screening method for clock-modulating drugs, either for the purpose of targeting pathologies associated with circadian disruption, or to identify drugs which elicit unwanted side-effects on the clock. ¬Once fully developed and systematically integrated in chrono-medicine, CircaSCOPE has the potential to improve drug discovery and yield medicines with better therapeutic index.
Here, we detail our plan for the first steps toward commercializing of our innovation. We will demonstrate the applicability of this approach through drug libraries screens and expand the repertoire of cell types that the system relies on. In addition, we will explore different commercialization strategies and interact with potential stakeholders and end-users. Given the medical importance of circadian effects, we’d envisage that CircaSCOPE will become as a gold-standard procedure in future drugs development.
Status
SIGNEDCall topic
ERC-2022-POC1Update Date
09-02-2023
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