mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic device comprising: a display ; a lens array ; one or more ultrasonic transducers coupled between the lens array and the display ; and detection circuitry , wherein the detection circuitry is configured to stimulate the one or more ultrasonic transducers to generate one or more ultrasonic waves that propagate to the lens array and the detection circuitry is configured to receive one or more reflections of the one or more ultrasonic waves from the lens array for determining optical integrity. a display ; a lens array ; one or more ultrasonic transducers coupled between the lens array and the display ; and detection circuitry , wherein the detection circuitry is configured to stimulate the one or more ultrasonic transducers to generate one or more ultrasonic waves that propagate to the lens array and the detection circuitry is configured to receive one or more reflections of the one or more ultrasonic waves from the lens array for determining optical integrity.
A method for depositing a coating material onto a substrate, comprising the steps of: determining the isoelectric pH of the substrate, the substrate comprising Cu 2 Sb; determining the isoelectric pH of the coating material, wherein the coating material is one of: AlPO 4 , Al 2 O 3 , ZnO, and Bi 2 O 3 ; preparing a solution having precursors of the coating material dissolved therein; adjusting the pH of the solution to between the isoelectric pH of the substrate and the isoelectric pH of the coating material after said step of preparing said solution ; and immersing the substrate into the solution ; whereby a uniform coating without pinhole defects is generated by self-assembly of the coating material onto the substrate. determining the isoelectric pH of the substrate, the substrate comprising Cu 2 Sb; determining the isoelectric pH of the coating material, wherein the coating material is one of: AlPO 4 , Al 2 O 3 , ZnO, and Bi 2 O 3 ; preparing a solution having precursors of the coating material dissolved therein; adjusting the pH of the solution to between the isoelectric pH of the substrate and the isoelectric pH of the coating material after said step of preparing said solution ; and immersing the substrate into the solution ; whereby a uniform coating without pinhole defects is generated by self-assembly of the coating material onto the substrate.
Process for manufacturing a packaging comprising a container , this process comprising: - an operation for forming the container by blow moulding or stretch blow moulding starting from a plastic preform ; - an operation for treating an inner face of the container , during which a thin barrier layer is formed on the inner face by plasma-enhanced chemical vapour deposition, this process being characterized in that it comprises an operation for printing an outer face of the container , during which an ink is deposited on the outer face in order to form thereon a decorative and/or informative inscription , and in that the printing is carried out by inkjet. - an operation for forming the container by blow moulding or stretch blow moulding starting from a plastic preform ; - an operation for treating an inner face of the container , during which a thin barrier layer is formed on the inner face by plasma-enhanced chemical vapour deposition,
A timepiece calendar device including: - a first disk for displaying dates, the first disk having a first face bearing date indications and being mobile about an axis (A), and - a second disk for displaying days, the second disk having a second face bearing day indications and being mobile about the axis (A), the first and second disks being such that the first and second faces are coplanar, the second face being disposed around the first face, the device including a calendar driver mobile including a first finger for driving a first set of teeth of the first disk and a second finger for driving a second set of teeth of the second disk. - a first disk for displaying dates, the first disk having a first face bearing date indications and being mobile about an axis (A), and - a second disk for displaying days, the second disk having a second face bearing day indications and being mobile about the axis (A),
Method of MR imaging of an object positioned in an examination volume of a MR device , the method comprising the steps of: - acquiring reference MR signal data from the object using a multi-point Dixon technique and in parallel via two or more RF receiving coils having sensitivity maps that indicate their spatial sensitivity profiles; - deriving a B 0 map from the reference MR signal data; - deriving a multi-point Dixon water map and a multi-point Dixon fat map from the reference MR signal data; - correcting the sensitivity maps according to the B 0 map for geometric distortions of the sensitivity maps; - acquiring imaging MR signal data from the object via the two or more receiving coils with sub-sampling of k-space; - reconstructing a MR image from the imaging MR signal data, wherein sub-sampling artefacts are eliminated using the corrected sensitivity maps, wherein - the correction of the sensitivity maps includes computation of separate corrected sensitivity maps associated with signals from water and from fat, respectively and - the reconstruction of the MR image is performed by way of a regularised SENSE reconstruction scheme which employs the separate corrected sensitivity maps to simultaneously unfold a separate water image and a fat image and - the regularisation employs as a regularisation map the multi-point Dixon water map and the multi-point Dixon fat map derived form the reference MR signal data. - acquiring reference MR signal data from the object using a multi-point Dixon technique and in parallel via two or more RF receiving coils having sensitivity maps that indicate their spatial sensitivity profiles; - deriving a B 0 map from the reference MR signal data; - deriving a multi-point Dixon water map and a multi-point Dixon fat map from the reference MR signal data; - correcting the sensitivity maps according to the B 0 map for geometric distortions of the sensitivity maps; - acquiring imaging MR signal data from the object via the two or more receiving coils with sub-sampling of k-space; - reconstructing a MR image from the imaging MR signal data, wherein sub-sampling artefacts are eliminated using the corrected sensitivity maps, wherein - the correction of the sensitivity maps includes computation of separate corrected sensitivity maps associated with signals from water and from fat, respectively and - the reconstruction of the MR image is performed by way of a regularised SENSE reconstruction scheme which employs the separate corrected sensitivity maps to simultaneously unfold a separate water image and a fat image and - the regularisation employs as a regularisation map the multi-point Dixon water map and the multi-point Dixon fat map derived form the reference MR signal data.
A method of identifying and quantifying a species from a sample, the method comprising: capturing a species-loaded complex, the species-loaded complex comprising: (i) the species, isolated from the sample, (ii) a carrier particle, (iii) a first species-specific binder, binding the species to the carrier particle, (iv) a second species-specific binder, bound to the species, (v) a nanoparticle, and (vi) a cleavable linker, linking the second species-specific binder to the nanoparticle; while the species-loaded complex is captured, identifying the carrier particle based on its physical characteristics, thereby permitting distinguishing a type of the carrier particle from amongst a plurality of different carrier particle types, each of the plurality of different carrier particle types corresponding uniquely to one of a plurality of different species in the sample; upon having identified the carrier particle, cleaving the cleavable linker while applying a voltage to an electrolyte surrounding the species-loaded complex, the voltage being sufficient to translocate the nanoparticle through a nanopore; and detecting an electrical current change produced as a result of the translocation of the nanoparticle through the nanopore, thereby permitting quantification of the species. capturing a species-loaded complex, the species-loaded complex comprising: (i) the species, isolated from the sample, (ii) a carrier particle, (iii) a first species-specific binder, binding the species to the carrier particle, (iv) a second species-specific binder, bound to the species, (v) a nanoparticle, and (vi) a cleavable linker, linking the second species-specific binder to the nanoparticle; while the species-loaded complex is captured, identifying the carrier particle based on its physical characteristics, thereby permitting distinguishing a type of the carrier particle from amongst a plurality of different carrier particle types, each of the plurality of different carrier particle types corresponding uniquely to one of a plurality of different species in the sample; upon having identified the carrier particle, cleaving the cleavable linker while applying a voltage to an electrolyte surrounding the species-loaded complex, the voltage being sufficient to translocate the nanoparticle through a nanopore; and detecting an electrical current change produced as a result of the translocation of the nanoparticle through the nanopore, thereby permitting quantification of the species.
A cryogenic system comprising: a vessel containing a cryogenic apparatus ; and a superconducting lead assembly used to feed electric current from a power supply to the cryogenic apparatus , the superconducting lead assembly extending from an area of the cryogenic system to the cryogenic apparatus, the area warmer than the cryogenic apparatus, the superconducting lead assembly having a positive superconducting wire disposed within the vessel and a negative superconducting wire disposed within the vessel, wherein the positive superconducting wire is an inflow superconducting wire conducting inflow current to the cryogenic apparatus and wherein the negative superconducting wire is an outflow superconducting wire conducting outflow current away from the cryogenic apparatus, wherein the superconducting lead assembly includes an electrically insulating separator , and wherein the positive superconducting wire and the negative superconducting wire are arranged proximately one another, maintained on opposite sides of the electrically insulating separator at a separation distance of about 1.0 millimeter or less such that the cumulative force to the superconducting lead assembly from electromagnetic forces attributable to current flowing simultaneously in opposite directions within the positive superconducting wire and the negative superconducting wire will cancel, and wherein a length of the superconducting lead assembly is flexible. a vessel containing a cryogenic apparatus ; and a superconducting lead assembly used to feed electric current from a power supply to the cryogenic apparatus , the superconducting lead assembly extending from an area of the cryogenic system to the cryogenic apparatus, the area warmer than the cryogenic apparatus, the superconducting lead assembly having a positive superconducting wire disposed within the vessel and a negative superconducting wire disposed within the vessel, wherein the positive superconducting wire is an inflow superconducting wire conducting inflow current to the cryogenic apparatus and wherein the negative superconducting wire is an outflow superconducting wire conducting outflow current away from the cryogenic apparatus, wherein the superconducting lead assembly includes an electrically insulating separator , and wherein the positive superconducting wire and the negative superconducting wire are arranged proximately one another, maintained on opposite sides of the electrically insulating separator at a separation distance of about 1.0 millimeter or less such that the cumulative force to the superconducting lead assembly from electromagnetic forces attributable to current flowing simultaneously in opposite directions within the positive superconducting wire and the negative superconducting wire will cancel, and wherein a length of the superconducting lead assembly is flexible.
Support structure for an offshore wind turbine comprising a lattice, formed around a central axis , of corner piles and stiffening ribs , and, provided on an underside of the support structure , suction buckets configured to be suctioned into an underwater bottom and thus anchor the support structure to the underwater bottom , and further, provided on an upper side of the support structure , a connecting flange for a wind turbine tower, wherein the upper side also comprises a ballast holder in which mass is received, this in a manner such that the centre of gravity of the mass lies eccentrically relative to the central axis , wherein the support structure comprises on the upper side a platform , the centre of gravity of which lies eccentrically relative to the central axis , and wherein the joint centre of gravity of the mass and the platform lies on the central axis .
An electroforming system for forming a component with an electroforming process, the electroforming system comprising: an electrodeposition bath within a bath tank ; a circuit including an anode and a cathode in the form of a mandrel made from a reclaimable material, the anode and cathode provided in the bath tank ; and a coolant circuit at least partially passing through the electrodeposition bath including: a heat exchanger , a cooling core formed within the mandrel , and a coolant tube fluidly coupling the heat exchanger with the cooling core through which a coolant (Ce) can flow; wherein the reclaimable material forming the mandrel is a structural wax material. an electrodeposition bath within a bath tank ; a circuit including an anode and a cathode in the form of a mandrel made from a reclaimable material, the anode and cathode provided in the bath tank ; and a coolant circuit at least partially passing through the electrodeposition bath including: a heat exchanger , a cooling core formed within the mandrel , and a coolant tube fluidly coupling the heat exchanger with the cooling core through which a coolant (Ce) can flow; a heat exchanger , a cooling core formed within the mandrel , and a coolant tube fluidly coupling the heat exchanger with the cooling core through which a coolant (Ce) can flow; wherein the reclaimable material forming the mandrel is a structural wax material.
Electrical connection device interposed between contacts of an electrical power source and terminals of at least one heating element forming an electric radiator traversed by an air flow , the electrical connection device comprising: - a first electrical link between a first electrical terminal of the heating element and a first contact of the said source that has a first electrical potential, and - a second electrical link between a second electrical terminal of the heating element and a second contact of the said source that has a second electrical potential different from the first electrical potential, characterized in that the first electrical link comprises a first electrical conductor and at least one second electrical conductor , the second electrical link comprises a third, one-piece electrical conductor , the first electrical conductor , second electrical conductor and third electrical conductor being jointly and at least partially embedded in an electrically insulating mould , in that the first electrical conductor and at least the second electrical conductor are assembled together by means of a flat carrier that is arranged in an electronic circuit board for controlling the use of the electric radiator , and in that the first electrical conductor comprises at least a first lug for an electrical link with the electronic circuit board , and the second electrical conductor comprises a second lug for an electrical link with the electronic circuit board , the first link lug and second link lug emerging from the mould so that they can be placed in electrical contact with a respective electrical track that is contained in the said electronic circuit board . - a first electrical link between a first electrical terminal of the heating element and a first contact of the said source that has a first electrical potential, and - a second electrical link between a second electrical terminal of the heating element and a second contact of the said source that has a second electrical potential different from the first electrical potential, characterized in that the first electrical link comprises a first electrical conductor and at least one second electrical conductor , the second electrical link comprises a third, one-piece electrical conductor , the first electrical conductor , second electrical conductor and third electrical conductor being jointly and at least partially embedded in an electrically insulating mould , in that the first electrical conductor and at least the second electrical conductor are assembled together by means of a flat carrier that is arranged in an electronic circuit board for controlling the use of the electric radiator , and in that the first electrical conductor comprises at least a first lug for an electrical link with the electronic circuit board , and the second electrical conductor comprises a second lug for an electrical link with the electronic circuit board , the first link lug and second link lug emerging from the mould so that they can be placed in electrical contact with a respective electrical track that is contained in the said electronic circuit board .
A device , in particular for optically monitoring machines or machine components, the device comprising a housing having an image acquisition device , the image acquisition device being disposed in the housing and comprising at least one lens , the device comprising at least one ultrasonic device for emitting ultrasonic waves into an environment of the device for avoiding an accumulation of dirt on the lens , and/or the device comprising at least one another ultrasonic device for emitting ultrasonic waves onto the lens , the device comprising a blind plug , in which the housing is disposed or integrated, and a flange attached to the housing , the flange being configured to position the blind plug parallel to the longitudinal dimension of the housing in the longitudinal dimension of the blind plug , the housing having a thread, and the flange having a mating thread meshing with said thread, and/or a screw nut being disposed on either side of the flange , the screw nuts each having a mating thread meshing with the thread of the housing .
Tool arrangement comprising a tool receptacle with a clamping mandrel , a rotary tool , placed on the tool receptacle , with a receiving bore and a closed centring ring (6; 8; 11; 17) that is inserted between the clamping mandrel and the rotary tool and has an elastically deformable contour, wherein the centring ring (6; 8; 11; 17) is formed in a circular manner in cross section and has at least one radially outwardly protruding, elastically movable outer centring region (7; 9; 13), characterized in that the outer centring region (7; 9; 13) has a slight oversize compared with the receiving bore and as a result deforms elastically radially inwardly when the rotary tool is fitted.
A controller (10; 30; 40; 50) for a floating wind turbine comprising a rotor with a plurality of rotor blades connected to a generator, wherein the controller comprises: an active damping controller (12; 32; 42; 52) for calculating one or more outputs for damping both a first motion of the floating wind turbine in a first frequency range and a second motion of the floating wind turbine in a second frequency range based on an input of the first motion and an input of the second motion, wherein the first motion is a rigid body motion and the second motion is a rigid body motion; wherein the active damping controller comprises a first control loop (16; 36) and a second control loop (18; 38), wherein the first control loop receives the input of the first motion and the second control loop receives the input of the second motion, wherein the active damping controller comprises a low pass filter, wherein a first low pass filter frequency for the first control loop and a second low pass filter frequency for the second control loop is set according to the first frequency range and the second frequency range respectively, and wherein the controller (10; 30; 40; 50) is arranged to calculate an output for controlling a blade pitch of one or more of the plurality of rotor blades and/or for controlling a torque of the generator based on an actual rotor speed, a target rotor speed, and the one or more outputs from the active damping controller such that both the first motion and the second motion will be damped. an active damping controller (12; 32; 42; 52) for calculating one or more outputs for damping both a first motion of the floating wind turbine in a first frequency range and a second motion of the floating wind turbine in a second frequency range based on an input of the first motion and an input of the second motion, wherein the first motion is a rigid body motion and the second motion is a rigid body motion; wherein the active damping controller comprises a first control loop (16; 36) and a second control loop (18; 38), wherein the first control loop receives the input of the first motion and the second control loop receives the input of the second motion, wherein the active damping controller comprises a low pass filter, wherein a first low pass filter frequency for the first control loop and a second low pass filter frequency for the second control loop is set according to the first frequency range and the second frequency range respectively, and wherein the controller (10; 30; 40; 50) is arranged to calculate an output for controlling a blade pitch of one or more of the plurality of rotor blades and/or for controlling a torque of the generator based on an actual rotor speed, a target rotor speed, and the one or more outputs from the active damping controller such that both the first motion and the second motion will be damped.
A method performed by a network node for selecting a System Information Area Identity, SI Area ID, for a first cell in a wireless communications network , the method comprising: - obtaining information about SI configurations of one or more respective cells in a set of cells relevant to the first cell ; - determining a set of candidate SI Area IDs for the first cell ; - calculating a value of a utility function for each respective SI Area ID candidate in the set of candidate SI Area IDs based on the obtained information about the SI configurations of the one or more respective cells in the set of cells relevant to the first cell ; and - selecting an SI Area ID for the first cell from the set of candidate SI Area IDs based on the calculated utility function values, which selected SI Area ID is for configuration of the first cell , wherein an SI Area consists of multiple cells where one or more System Information Blocks, SIBs, are valid. - obtaining information about SI configurations of one or more respective cells in a set of cells relevant to the first cell ; - determining a set of candidate SI Area IDs for the first cell ; - calculating a value of a utility function for each respective SI Area ID candidate in the set of candidate SI Area IDs based on the obtained information about the SI configurations of the one or more respective cells in the set of cells relevant to the first cell ; and - selecting an SI Area ID for the first cell from the set of candidate SI Area IDs based on the calculated utility function values, which selected SI Area ID is for configuration of the first cell ,