Country | Type | Number | Dated | Case |
Germany | Issued Patent | 602016080095.0 | 06/07/2023 | 2015-186 |
European Patent Office | Issued Patent | EP3311136 | 06/07/2023 | 2015-186 |
United Kingdom | Issued Patent | EP3311136 | 06/07/2023 | 2015-186 |
United States Of America | Issued Patent | 11,169,156 | 11/09/2021 | 2015-186 |
Japan | Issued Patent | 6898301 | 06/14/2021 | 2015-186 |
Rapid changes in the membrane potential of neurons and cardiomyocytes define the unique physiology of these cells. The classical means to monitor membrane potentials is patch clamp electrophysiology, a low-throughput and highly invasive technique. One current alternative is to use calcium imaging, as the agents are robust and sensitive, come in a variety of colors, and can be used in a wide range of biological contexts. Calcium imaging, however, allows only an imperfect approximation of membrane potential changes, and fast-spiking neuronal events are difficult to resolve.
Fluorescent voltage sensors can achieve fast, sensitive, and non-disruptive direct readouts of membrane potentials. UC Berkeley researchers have designed and synthesized a new fluorophore called ‘Berkeley Red’ that can be used in the context of voltage-sensing scaffolds to generate fluorescent voltage sensors.
dye, fluorophore, neuron, cardiomyocyte, membrane potential, action potential, optical, voltage, sensor