mhurhangee/patent-ind-claim-en huggingface dataset:
A spatial optical communication receiver comprising: a telescope for focusing a spatially propagated optical signal and outputting the optical signal collimated; a pointing mirror for compensating for an angle shift of the optical signal output from the telescope; a focusing optical system for focusing the optical signal from the pointing mirror; a multi-core fiber having a plurality of cores for transmitting the optical signal focused; a splitter for outputting optical signals of each core transmitted by the multi-core fiber through different single mode fibers for each core; coherent detectors for performing coherent detection on the optical signals from each single mode fiber; and a digital signal processing unit for decoding digital signals of the signals subjected to the coherent detection, wherein the digital signal processing unit includes an adaptive equalizer for performing multi-input and single-output equalization, a phase compensation unit for compensating for a phase of a signal from the adaptive equalizer, a decoding unit for decoding the phase-compensated signal, a power monitor for outputting a monitored value of power corresponding to each of the cores, and an angle shift detecting unit for outputting an angle shift signal indicating a value of the angle shift of the optical signal input to the focusing optical system by using the monitored value, and wherein the pointing mirror is adapted to update a compensation angle correspondingly to the angle shift signal. a telescope for focusing a spatially propagated optical signal and outputting the optical signal collimated; a pointing mirror for compensating for an angle shift of the optical signal output from the telescope; a focusing optical system for focusing the optical signal from the pointing mirror; a multi-core fiber having a plurality of cores for transmitting the optical signal focused; a splitter for outputting optical signals of each core transmitted by the multi-core fiber through different single mode fibers for each core; coherent detectors for performing coherent detection on the optical signals from each single mode fiber; and a digital signal processing unit for decoding digital signals of the signals subjected to the coherent detection, wherein the digital signal processing unit includes an adaptive equalizer for performing multi-input and single-output equalization, a phase compensation unit for compensating for a phase of a signal from the adaptive equalizer, a decoding unit for decoding the phase-compensated signal, a power monitor for outputting a monitored value of power corresponding to each of the cores, and an angle shift detecting unit for outputting an angle shift signal indicating a value of the angle shift of the optical signal input to the focusing optical system by using the monitored value, and wherein the pointing mirror is adapted to update a compensation angle correspondingly to the angle shift signal.
An information processing system comprising: plural sensors ; plural buses respectively connected to the plural sensors ; an arbitration unit performing arbitration of the plural buses; and a priority determination unit determining the priority of each of the plural sensors , wherein the arbitration unit performs arbitration of the plural buses in accordance with the determination result of the priority determination unit, wherein at least a front monitoring sensor which monitors a front direction of an own vehicle and a periphery monitoring sensor which monitors the periphery of the own vehicle are included as the plural sensors , and wherein the arbitration unit performs arbitration so that a bus to which the front monitoring sensor is connected has priority when the own vehicle travels at predetermined vehicle speed or more, and the arbitration unit performs arbitration so that a bus to which the periphery monitoring sensor is connected has priority when the own vehicle travels at less than the predetermined speed. plural sensors ; plural buses respectively connected to the plural sensors ; an arbitration unit performing arbitration of the plural buses; and a priority determination unit determining the priority of each of the plural sensors , wherein the arbitration unit performs arbitration of the plural buses in accordance with the determination result of the priority determination unit, wherein at least a front monitoring sensor which monitors a front direction of an own vehicle and a periphery monitoring sensor which monitors the periphery of the own vehicle are included as the plural sensors , and wherein the arbitration unit performs arbitration so that a bus to which the front monitoring sensor is connected has priority when the own vehicle travels at predetermined vehicle speed or more, and the arbitration unit performs arbitration so that a bus to which the periphery monitoring sensor is connected has priority when the own vehicle travels at less than the predetermined speed.
A floor grinding machine for grinding floor surfaces of stone or stone-like material, the machine comprising: a machine frame , a grinding head , supported by the machine frame , a motor , supported by the machine frame and operatively connected to the grinding head , a handle frame , extending from the machine frame , and pivotable relative to the machine frame , characterised by a guide member , which is pivotable relative to the machine frame and pivotable relative to the handle frame , a first locking device , for locking the guide member relative to the handle frame , and a second locking device , for locking the guide member relative to the machine frame , wherein the guide member is pivotable relative to the machine frame about a first axis and the handle frame is pivotable relative guide member about a second axis, wherein said first and second axes are coaxial. a machine frame , a grinding head , supported by the machine frame , a motor , supported by the machine frame and operatively connected to the grinding head , a handle frame , extending from the machine frame , and pivotable relative to the machine frame , characterised by a guide member , which is pivotable relative to the machine frame and pivotable relative to the handle frame , a first locking device , for locking the guide member relative to the handle frame , and a second locking device , for locking the guide member relative to the machine frame , wherein the guide member is pivotable relative to the machine frame about a first axis and the handle frame is pivotable relative guide member about a second axis, wherein said first and second axes are coaxial.
A sole structure (14, 14a - 14f) for an article of footwear (10, 10a - 10e), the sole structure (14, 14a - 14f) comprising: a first midsole portion (36, 36a - 36e) including a first sidewall; a second midsole portion (44, 44a - 44e) including a second sidewall; and a first sheet disposed between the first midsole portion (36, 36a - 36e) and the second midsole portion (44, 44a - 44e) and including a first surface and a second surface formed on an opposite side of the first sheet than the first surface, the first sheet being a mesh textile defining one or more apertures (68, 68 1 -68 n ) extending through a structure of the mesh textile from the first surface to the second surface; wherein the first midsole portion (36, 36a - 36e) includes a second midsole contacting region (70, 70 1 -70 n ) and the second midsole portion (44, 44a - 44e) includes a first midsole contacting region (74, 74 1 -74 n ) directly contacting the second midsole contacting region (70, 70 1 -70 n ) through the one or more apertures (68, 68 1 -68 n ) of the first sheet, and wherein the first midsole portion (36, 36a - 36e) includes a first series of peaks and a first series of valleys and the second midsole portion (44, 44a - 44e) includes a second series of peaks and a second series of valleys , the first series of peaks opposing the second series of valleys and the second series of peaks opposing the first series of valleys . a first midsole portion (36, 36a - 36e) including a first sidewall; a second midsole portion (44, 44a - 44e) including a second sidewall; and a first sheet disposed between the first midsole portion (36, 36a - 36e) and the second midsole portion (44, 44a - 44e) and including a first surface and a second surface formed on an opposite side of the first sheet than the first surface, the first sheet being a mesh textile defining one or more apertures (68, 68 1 -68 n ) extending through a structure of the mesh textile from the first surface to the second surface; wherein the first midsole portion (36, 36a - 36e) includes a second midsole contacting region (70, 70 1 -70 n ) and the second midsole portion (44, 44a - 44e) includes a first midsole contacting region (74, 74 1 -74 n ) directly contacting the second midsole contacting region (70, 70 1 -70 n ) through the one or more apertures (68, 68 1 -68 n ) of the first sheet, and wherein the first midsole portion (36, 36a - 36e) includes a first series of peaks and a first series of valleys and the second midsole portion (44, 44a - 44e) includes a second series of peaks and a second series of valleys , the first series of peaks opposing the second series of valleys and the second series of peaks opposing the first series of valleys .
An ice protection assembly for an aircraft, the ice protection assembly comprising: an airfoil comprising: a leading edge ; a trailing edge ; a first surface ; a second surface ; a spar (S) extending spanwise across a width of the airfoil from the first surface to the second surface at the largest height of the airfoil , wherein the spar (S) is configured to provide structural support to the airfoil ; and an ice protected zone extending from the leading edge to line (D) upstream of the spar (S); a heater mounted on the airfoil in the ice protected zone configured to melt ice that accumulates on or near the leading edge when in operation thereby forming liquid water; and comprising first and second ice phobic layers and wherein said first ice phobic layer is attached to the airfoil and positioned on the second surface between the ice protected zone and the spar (S) and entirely downstream of the ice protected zone , and wherein said second ice phobic layer is located next to the first ice phobic layer and downstream of the spar (S) in the direction of said trailing edge such that said ice phobic layers prevent the liquid water flowing across the airfoil from refreezing downstream of the ice protected zone when the heater is in operation. a leading edge ; a trailing edge ; a first surface ; a second surface ; a spar (S) extending spanwise across a width of the airfoil from the first surface to the second surface at the largest height of the airfoil , wherein the spar (S) is configured to provide structural support to the airfoil ; and an ice protected zone extending from the leading edge to line (D) upstream of the spar (S); a heater mounted on the airfoil in the ice protected zone configured to melt ice that accumulates on or near the leading edge when in operation thereby forming liquid water; and comprising first and second ice phobic layers and wherein said first ice phobic layer is attached to the airfoil and positioned on the second surface between the ice protected zone and the spar (S) and entirely downstream of the ice protected zone , and wherein said second ice phobic layer is located next to the first ice phobic layer and downstream of the spar (S) in the direction of said trailing edge such that said ice phobic layers prevent the liquid water flowing across the airfoil from refreezing downstream of the ice protected zone when the heater is in operation.
Device for forming plastic preforms into plastic containers with a mobile carrier on which is arranged a plurality of blowing stations , wherein these blowing stations each comprise blow mould carrier parts to hold blow mould parts and at least one of these blow mould carrier parts is mobile in relation to the other blow mould carrier part to open and close the blow mould, and wherein the blowing stations each comprise a carrier element to carry at least one blow mould carrier part , wherein the device comprises a clean room within which the plastic preforms can be expanded into plastic containers , wherein the blow mould carrier parts with the carrier element form a unit which can be demounted as a whole from the carrier .
A communication method for transmitting at least one data item comprising: packetizing , by a communication device , the data item into a sequence of data packets (209A-N); broadcasting by the communication device the data packets (209A-N) over a connectionless channel in a short-range radio frequency band; characterized in that the method further comprises initializing a count value, wherein the broadcasting of the data packets comprises: changing the count value with a predefined amount, for each of the data packets; including the count value into the data packet and broadcasting the resulting data packet; reinitializing the count value upon transmitting a predefined number of sequences.
Coating deposited on a surface of a substrate comprising a multi-layered film consisting of a plurality of A-layers and a plurality of B-layers deposited alternating one on each other forming a A/B/A/B/A... architecture, the A-layers comprising aluminium chromium boron nitride and the B-layers comprising aluminium chromium nitride and not comprising boron, characterized in that , - the multi-layered film comprises at least a first portion and a last portion , wherein the average boron content in the first coating portion is higher than the average boron content in the last coating portion , and - both the first coating portion and the last coating portion exhibit inherent compressive stresses and wherein the inherent compressive stress in the first coating portion is lower than in the last coating portion . - the multi-layered film comprises at least a first portion and a last portion , wherein the average boron content in the first coating portion is higher than the average boron content in the last coating portion , and - both the first coating portion and the last coating portion exhibit inherent compressive stresses and wherein the inherent compressive stress in the first coating portion is lower than in the last coating portion .
Method for closing a clearance between ends of a spacer which has been applied to a glass pane , wherein the ends of the spacer are connected to one another by introducing a solidifying material into the clearance , characterized in that the clearance between the ends of the spacer is present in the region of a corner of the spacer, in that a shuttering which surrounds the clearance between the ends of the spacer is fitted in the region of the clearance between the ends of the spacer , and in that the solidifying material is introduced into the clearance enclosed by the shuttering .
A method of producing a photocatalytic bituminous product, said method comprising: - impregnating a sheet with an organic layer; - coating said organic layer with an inorganic layer, wherein said coating comprises - sprinkling said organic layer with mineral granulates, and thereafter - further coating said organic layer with mineral granulates by depositing photocatalytic titanium dioxide nanoparticles onto said organic layer with mineral granulates thereby depositing photocatalytic titanium dioxide nanoparticles onto the sprinkled mineral granulates. - impregnating a sheet with an organic layer; - coating said organic layer with an inorganic layer, - sprinkling said organic layer with mineral granulates, and thereafter - further coating said organic layer with mineral granulates by depositing photocatalytic titanium dioxide nanoparticles onto said organic layer with mineral granulates thereby depositing photocatalytic titanium dioxide nanoparticles onto the sprinkled mineral granulates.
A method of operating a multiple-use sensor array comprising two or more different ion-selective electrodes including a first ion-selective electrode and a second ion-selective electrode, said first ion-selective electrode including a membrane comprising (a) a first ionophore and (b) at least a second ionophore, said second ion-selective electrode including a membrane comprising the second ionophore, said first ionophore not being present in said second ion-selective electrode, said method comprising the steps of: i. in sequence contacting the sensor array with one or more rinse solutions establishing a 1-point calibration and optionally one or more calibration solutions, each of said rinse solutions being substantially devoid of the ion for which said first ionophore is selective and comprising at least the ion for which said second ionophore is selective; ii. subsequently contacting the sensor array with a sample of biological origin. i. in sequence contacting the sensor array with one or more rinse solutions establishing a 1-point calibration and optionally one or more calibration solutions, each of said rinse solutions being substantially devoid of the ion for which said first ionophore is selective and comprising at least the ion for which said second ionophore is selective; ii. subsequently contacting the sensor array with a sample of biological origin.
A device comprising: a bone plate having an outer surface and a bone-facing surface and a longitudinal edge extending between the outer surface and the bone-facing surface, the bone plate comprising one or more spiral-shaped slots extending through the plate from the outer surface to the bone-facing surface and one or more receiving holes , the one or more spiral-shaped slots circumscribing a periphery of the one or more receiving holes and not penetrating through the longitudinal edge of the bone plate, wherein the one or more spiral-shaped slots form a spring element , the spring element at least partially surrounding the receiving hole and permitting axial translation of the bone plate relative to the one or more receiving holes within a plane that is parallel to the outer or bone-facing surface of the bone plate, but limiting motion of the bone plate relative to the one or more receiving holes in a direction that is substantially perpendicular to the upper or lower surface of the bone plate; wherein the one or more spiral-shaped slots circumscribes the periphery of the receiving hole at least once.
An electromagnetic wave detector comprising: - a first insulating film having a first surface and a second surface facing the first surface; - a first layer configured to perform photoelectric conversion by an incident electromagnetic wave and to change in potential with a bias voltage applied to the first layer , the first layer being made of a first two-dimensional atomic layer material; and - a second layer configured to receive the change in potential through the first insulating film and to generate change in electrical quantity, the second layer being made of a second two-dimensional atomic layer material and provided on the first surface - a second electrode electrically connected to one end of the second layer ; and - a third electrode electrically connected to the other end of the second layer , wherein the first layer functions as a gate electrode and the second layer functions as a channel layer, and wherein when the bias voltage is applied to the first layer , a gate voltage is applied to the second layer through the first insulating film , wherein the first two-dimensional atomic layer material includes a two-dimensional atomic layer material selected from the group consisting of graphene, graphene nanoribbon, transition metal dichalcogenide, black phosphorus, silicene, and germanene, and wherein the second two-dimensional atomic layer material includes a two-dimensional atomic layer material selected from the group consisting of graphene, graphene nanoribbon, transition metal dichalcogenide, black phosphorus, silicene, and germanene. - a first insulating film having a first surface and a second surface facing the first surface; - a first layer configured to perform photoelectric conversion by an incident electromagnetic wave and to change in potential with a bias voltage applied to the first layer , the first layer being made of a first two-dimensional atomic layer material; and - a second layer configured to receive the change in potential through the first insulating film and to generate change in electrical quantity, the second layer being made of a second two-dimensional atomic layer material and provided on the first surface - a second electrode electrically connected to one end of the second layer ; and - a third electrode electrically connected to the other end of the second layer , wherein the first two-dimensional atomic layer material includes a two-dimensional atomic layer material selected from the group consisting of graphene, graphene nanoribbon, transition metal dichalcogenide, black phosphorus, silicene, and germanene, and wherein the second two-dimensional atomic layer material includes a two-dimensional atomic layer material selected from the group consisting of graphene, graphene nanoribbon, transition metal dichalcogenide, black phosphorus, silicene, and germanene.
A method of preparing a library of tagged nucleic acid fragments comprising: (a) contacting a population of cells comprising less than 15 cells directly with a lysis reagent to generate a cell lysate, wherein the lysis reagent comprises one or more proteases, and wherein the cell lysate contains a target nucleic acid; (b) inactivating the one or more proteases to form an inactivated cell lysate; and (c) directly applying at least one transposase and at least one transposon end composition containing a transferred strand to the inactivated cell lysate under conditions where the target nucleic acid and the transposon end composition undergo a transposition reaction to generate a mixture; wherein the target nucleic acid is double-stranded DNA; wherein: (i) the target nucleic acid is fragmented to generate a plurality of target nucleic acid fragments, and (ii) the transferred strand of the transposon end composition is joined to 5' ends of each of a plurality of the target nucleic acid fragments to generate a plurality of 5' tagged target nucleic acid fragments; wherein the target nucleic acid remains double-stranded DNA prior to applying the transposase and the transposon end composition in (c); wherein no DNA purification or amplification occurs between (a) and (c); and wherein (a), (b), and (c) are performed in a single reaction mixture. (a) contacting a population of cells comprising less than 15 cells directly with a lysis reagent to generate a cell lysate, wherein the lysis reagent comprises one or more proteases, and wherein the cell lysate contains a target nucleic acid; (b) inactivating the one or more proteases to form an inactivated cell lysate; and (c) directly applying at least one transposase and at least one transposon end composition containing a transferred strand to the inactivated cell lysate under conditions where the target nucleic acid and the transposon end composition undergo a transposition reaction to generate a mixture; wherein the target nucleic acid is double-stranded DNA; wherein: (i) the target nucleic acid is fragmented to generate a plurality of target nucleic acid fragments, and (ii) the transferred strand of the transposon end composition is joined to 5' ends of each of a plurality of the target nucleic acid fragments to generate a plurality of 5' tagged target nucleic acid fragments; (i) the target nucleic acid is fragmented to generate a plurality of target nucleic acid fragments, and (ii) the transferred strand of the transposon end composition is joined to 5' ends of each of a plurality of the target nucleic acid fragments to generate a plurality of 5' tagged target nucleic acid fragments; wherein the target nucleic acid remains double-stranded DNA prior to applying the transposase and the transposon end composition in (c); wherein no DNA purification or amplification occurs between (a) and (c); and wherein (a), (b), and (c) are performed in a single reaction mixture.