Abstract: In accordance with an example embodiment of the present invention, apparatus comprising a waveguide and a spectral dispersion element, the apparatus being configured to be moveably attachable to a portable device, the portable device comprising a radiation sensing element and a radiation source, the apparatus being configured to be moveably attachable to the portable device to provide a first configuration in which the waveguide is positioned to transmit radiation from the radiation source towards an analyte region and/or from the analyte region towards the dispersion element; and such that the dispersion element is positioned to disperse radiation from the analyte region to form a spectrum which is provided towards the radiation sensing element for spectral analysis, and a second configuration in which the radiation sensing element and radiation source are able to capture and illuminate a scene for image capture.

Abstract: An apparatus comprising a processor and memory including computer program code. The memory and computer program code can be configured to, with the processor, cause the apparatus to illuminate one or more sensor elements with electromagnetic radiation emitted from corresponding regions of an electronic display. The one or more sensor elements can be configured to exhibit a specific electrical response to the illumination when a specific set of analytes are bound to the one or more sensor elements, determine the electrical response of the one or more sensor elements, and compare the determined electrical response with one or more predetermined electrical responses to determine a match. Each predetermined electrical response can be associated with the binding of a different set of analytes, wherein determination of a match allows the specific set of analytes bound to the one or more sensor elements to be identified.

Abstract: An apparatus comprising a nanowire waveguide with first and second ends, the second end comprising a nanoparticle, the nanowire waveguide configured to transmit radiation from the first end to the second end to illuminate the nanoparticle, the apparatus configured such that the nanoparticle is capable of being in close proximity to an analyte to allow for detection of said analyte.

Abstract: An apparatus including a resonator electrode and a second electrode separated from the resonator electrode by a gap having a size that facilitates electron transfer across the gap, wherein the resonator electrode is a resonator electrode mounted for oscillatory motion relative to the second electrode that results in a size of the gap between the resonator electrode and the second electrode being time variable; a feedback circuit configured to convey an electron transfer signal dependent upon electron transfer across the gap as a feedback signal; and a drive electrode adjacent the resonator electrode configured to receive a feedback signal from a feedback circuit configured to provide a time-varying feedback signal dependent upon electron transfer across a gap.

Abstract: An apparatus comprising a nanowire waveguide with first and second ends, the second end comprising a nanoparticle, the nanowire waveguide configured to transmit radiation from the first end to the second end to illuminate the nanoparticle, the apparatus configured such that the nanoparticle is capable of being in close proximity to an analyte to allow for detection of said analyte.

Abstract: An apparatus including a resonator electrode and a second electrode separated from the resonator electrode by a gap having a size that facilitates electron transfer across the gap, wherein the resonator electrode is a resonator electrode mounted for oscillatory motion relative to the second electrode that results in a size of the gap between the resonator electrode and the second electrode being time variable; a feedback circuit configured to convey an electron transfer signal dependent upon electron transfer across the gap as a feedback signal; and a drive electrode adjacent the resonator electrode configured to receive a feedback signal from a feedback circuit configured to provide a time-varying feedback signal dependent upon electron transfer across a gap.

Abstract: The present invention relates to fabrication of graphene structures having a predefined pattern. The invention provides a new method that comprises obtaining a body of highly oriented graphite (61) and patterning at least a surface layer of the body by removing the substance of the body outside the predefined pattern. Thereafter, the method comprises stamping a graphene structure (65) on the substrate (62) by pressing the patterned surface layer of the body (61) against the substrate (62). The invention provides also a stamp for the fabrication method.