| 2013-RICK-66495 | |
| The role of biological sensors is invaluable to the study of life sciences; sensors with higher accuracy, smaller size, or increased functionality enable deeper insights and improved tools for research or medical applications. A major goal of this type of research is a miniature sensor that is capable of sensing multiple substances. These sensors could be implanted in the body for in vivo monitoring of glucose, metabolism, or other biological conditions. Researchers at Purdue University have developed a new method for layer-by-layer assembly of enzyme-based amperometric biosensors. The design uses electroactive polymer based nanomaterials to allow for fine control of localization and doping, enabling high spatial and temporal resolution multianalyte sensing. Unlike current functionalization strategies, this one has the electrode actively produce its own entrapment matrix, which makes this method more easily amendable to further miniaturization and multiplexing. Advantages: -Scalability -High spatial and temporal resolution -Adaptable with enzymatic transducers and macro/nanoscale sensing paradigms Potential Applications: -Glucose sensing chips for blood glucose monitoring -On-chip sensors for metabolites -Implantable electrodes for in vivo monitoring of multiple analytes |
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Apr 2, 2019
CON-Patent
United States
10,480,091
Nov 19, 2019
Apr 16, 2014
Utility Patent
United States
10,287,699
May 14, 2019
Apr 16, 2013
Provisional-Patent
United States
(None)
(None)
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