Abstract: A sensor system includes a sensor that includes a RLC tank having a first input impedance. The RLC tank includes a first coupling inductor. The sensor system also includes a reader that includes a -RLC tank having a second input impedance. Characteristically, the -RLC tank includes a second coupling inductor inductively coupled to the first coupling inductor wherein the first input impedance multiplied by i is approximately equal to the complex conjugate of the second input impedance multiplied by i at one or more predetermined frequencies.

Abstract: An electrowetting device and a method of electrowetting may be provided. An electrode may be provided. The electrode has a graphene layer having a first side and a second side that opposes the first side. The electrode also has a dielectric layer disposed on the first side of the graphene layer. A liquid droplet is disposed on the dielectric layer. A voltage is applied through the droplet and the electrode. A contact angle between the dielectric layer and an edge of the liquid droplet contacting the dielectric layer changes in response to the applied voltage.

Abstract: A graphene biosensor is formed on an electrically insulating substrate with a single-layer graphene sheet arranged between two metallic electrodes. The graphene sheet is in electrical contact with the metallic electrodes. The graphene sheet has perforations creating edges in the graphene sheet. The perforations may be holes on a micrometer scale or in a nanometer scale. The biosensor can be configured as an ISFET. The graphene sheet may comprise affinity probes immobilized on the edges for attaching specific molecules to the graphene sheet. Several graphene sheets may be arranged in a microarray with different affinity probes on different graphene sheets. The sensor may also be arranged on the distal end of a catheter for in situ measurements in a body vessel.

Abstract: An electrowetting device and a method of electrowetting may be provided. An electrode may be provided. The electrode has a graphene layer having a first side and a second side that opposes the first side. The electrode also has a dielectric layer disposed on the first side of the graphene layer. A liquid droplet is disposed on the dielectric layer. A voltage is applied through the droplet and the electrode. A contact angle between the dielectric layer and an edge of the liquid droplet contacting the dielectric layer changes in response to the applied voltage.

Abstract: Nanoporous materials can be used to enrich samples for subsequent analysis of substances contained in the sample. The method is shown to enrich the yield of species in the low molecular weight proteome, allowing detection of small peptides in the low nanomolar range.

Abstract: Nanoporous materials can be used to enrich samples for subsequent analysis of substances contained in the sample. The method is shown to enrich the yield of species in the low molecular weight proteome, allowing detection of small peptides in the low nanomolar range.

Abstract: Nanoporous materials can be used to enrich samples for subsequent analysis of substances contained in the sample. The method is shown to enrich the yield of species in the low molecular weight proteome, allowing detection of small peptides in the low nanomolar range.