Abstract: Disclosed are a remote-controlled dismantling robot and dismantling method for nuclear facility decommissioning, relating to the technical field of nuclear facility decommissioning. The robot includes a tracked chassis, a hydraulic arm, a hydraulic system, and a quick change mechanism for hydraulic tool head, where the tracked chassis includes a vehicle chassis, a rotating mechanism, track systems, and support leg systems; and the hydraulic arm includes a multi-stage hinged arm and arm oil cylinder. The robot can dismantle to-be-decommissioned nuclear facilities under human remote control, which can decrease the radiation dose to the operators.

Abstract: There is method for detecting the presence or absence of a target analyte in a sample comprising the steps of: allowing an inorganic fluorescent particle to conjugate with a detection biomolecule that is bound to said target analyte, if present in said sample, said target analyte additionally being bound by a capture biomolecule immobilized on or within a nanostructure; and detecting the fluorescence emitted by said inorganic fluorescent particle, said nanostructure being capable of generating a surface plasmon resonance effect when excited by a light source to substantially increase the fluorescence emitted by said inorganic fluorescent particle, wherein the detected fluorescence indicates the presence of said target analyte in said sample.

Abstract: A plasmonic detector and method for manufacturing a plasmonic detector. The plasmonic detector comprises two nanoscale metallic rods coupled to a bias voltage; a nanoscale cavity formed between adjacent ends of the two nanoscale metallic rods; and an absorption material disposed in the nanoscale cavity for converting an electromagnetic field to an electric current for outputting via the nanoscale metallic rods.

Abstract: A sensor and a method of detecting a target analyte are provided. The sensor includes a substrate; a layer comprising a plurality of through holes, wherein the layer is disposed above the substrate; a first element configured to detect a target analyte; a second element that can produce a detectable signal; wherein the first element and the second element are configured to couple the target analyte between the first element and the second element.

Abstract: There is method for detecting the presence or absence of a target analyte in a sample comprising the steps of: allowing an inorganic fluorescent particle to conjugate with a detection biomolecule that is bound to said target analyte, if present in said sample, said target analyte additionally being bound by a capture biomolecule immobilized on or within a nanostructure; and detecting the fluorescence emitted by said inorganic fluorescent particle, said nanostructure being capable of generating a surface plasmon resonance effect when excited by a light source to substantially increase the fluorescence emitted by said inorganic fluorescent particle, wherein the detected fluorescence indicates the presence of said target analyte in said sample.

Abstract: A plasmonic detector and method for manufacturing a plasmonic detector. The plasmonic detector comprises two nanoscale metallic rods coupled to a bias voltage; a nanoscale cavity formed between adjacent ends of the two nanoscale metallic rods; and an absorption material disposed in the nanoscale cavity for converting an electromagnetic field to an electric current for outputting via the nanoscale metallic rods.

Abstract: The invention relates to an IC chip-planning system and method to provide automatic creation and optimisation of chip-level design plan alternatives that can meet user-specific target chip area/design density, chip shape/aspect ratio, delay/timing closure, and/or congestion/routability objectives at each level of the design—architectural, RTL, gate, structural and physical levels. By combining global searching and local searching, a multi-objective optimisation process and a single-objective optimisation process, the invention can greatly reduce searching and optimisation time. Flexible system structure allows for generation of the optimised chip-planning solutions via an open optimisation train, a small optimisation loop, and/or a large optimisation loop.