TECHNOLOGY
TECHNOLOGY
Our Proprietary Technology
Our Proprietary Technology
Where Breakthroughs Begin
Where Breakthroughs Begin
Our sensor is built around a thin layer of graphene, a nanomaterial known for its high sensitivity and conductivity properties. Through a proprietary interfacial engineering process, we link the graphene to biorecognition elements
When the target molecule is present in a sample, it binds to the biorecognition layer. This interaction causes a change in the electrical properties of the graphene. Our sensor detects this change instantly and translates it into digital data, and through signal analysis, this tells us not only if the target analyte is present (positive or negative sample) but also the exact concentration of it (quantitative analysis).
Our patented nanoarchitectural interface design coupled with microelectronic electrode engineering allows us to create sensors that can detect more than one analyte at a time, using a single sample (multiplex), providing a more comprehensive analytical picture of the target sample.
Our sensor is built around a thin layer of graphene, a nanomaterial known for its high sensitivity and conductivity properties. Through a proprietary interfacial engineering process, we link the graphene to biorecognition elements
When the target molecule is present in a sample, it binds to the biorecognition layer. This interaction causes a change in the electrical properties of the graphene. Our sensor detects this change instantly and translates it into digital data, and through signal analysis, this tells us not only if the target analyte is present (positive or negative sample) but also the exact concentration of it (quantitative analysis).
Our patented nanoarchitectural interface design coupled with microelectronic electrode engineering allows us to create sensors that can detect more than one analyte at a time, using a single sample.
Our sensor is built around a thin layer of graphene, a nanomaterial known for its high sensitivity and conductivity properties. Through a proprietary interfacial engineering process, we link the graphene to biorecognition elements
When the target molecule is present in a sample, it binds to the biorecognition layer. This interaction causes a change in the electrical properties of the graphene. Our sensor detects this change instantly and translates it into digital data, and through signal analysis, this tells us not only if the target analyte is present (positive or negative sample) but also the exact concentration of it (quantitative analysis).
Our patented nanoarchitectural interface design coupled with microelectronic electrode engineering allows us to create sensors that can detect more than one analyte at a time, using a single sample.
Our sensor is built around a thin layer of graphene, a nanomaterial known for its high sensitivity and conductivity properties. Through a proprietary interfacial engineering process, we link the graphene to biorecognition elements
When the target molecule is present in a sample, it binds to the biorecognition layer. This interaction causes a change in the electrical properties of the graphene. Our sensor detects this change instantly and translates it into digital data, and through signal analysis, this tells us not only if the target analyte is present (positive or negative sample) but also the exact concentration of it (quantitative analysis).
Our patented nanoarchitectural interface design coupled with microelectronic electrode engineering allows us to create sensors that can detect more than one analyte at a time, using a single sample (multiplex), providing a more comprehensive analytical picture of the target sample.
Our sensor is built around a thin layer of graphene, a nanomaterial known for its high sensitivity and conductivity properties. Through a proprietary interfacial engineering process, we link the graphene to biorecognition elements
When the target molecule is present in a sample, it binds to the biorecognition layer. This interaction causes a change in the electrical properties of the graphene. Our sensor detects this change instantly and translates it into digital data, and through signal analysis, this tells us not only if the target analyte is present (positive or negative sample) but also the exact concentration of it (quantitative analysis).
Our patented nanoarchitectural interface design coupled with microelectronic electrode engineering allows us to create sensors that can detect more than one analyte at a time, using a single sample (multiplex), providing a more comprehensive analytical picture of the target sample.
Our sensor is built around a thin layer of graphene, a nanomaterial known for its high sensitivity and conductivity properties. Through a proprietary interfacial engineering process, we link the graphene to biorecognition elements
When the target molecule is present in a sample, it binds to the biorecognition layer. This interaction causes a change in the electrical properties of the graphene. Our sensor detects this change instantly and translates it into digital data, and through signal analysis, this tells us not only if the target analyte is present (positive or negative sample) but also the exact concentration of it (quantitative analysis).
Our patented nanoarchitectural interface design coupled with microelectronic electrode engineering allows us to create sensors that can detect more than one analyte at a time, using a single sample (multiplex), providing a more comprehensive analytical picture of the target sample.
Technology Journey
Technology Journey
Peer reviewed articles published by our team
Peer reviewed articles published by our team