mhurhangee/patent-ind-claim-en huggingface dataset:
Home automation system comprising, - at least one evaluation device, - display means arranged to display a view of at least a part of a floor plan of a spatial environment of the home automation system, and, - programming means arranged for programming at least one action of an actuator of the home automation system based on the currently displayed view of the floor plan and on a function of the actuator and/or a sensor of the home automation system, characterized in that - the evaluation device obtains, from the reception signals of a transmitter received by at least two sensors, a respective reception field strength together with a transmitter identification and a sensor identification as reception information, and detects a position from the reception information, - such that a mobile display device of the display means displays a part of the floor plan depending on the detected position within the floor plan. - at least one evaluation device, - display means arranged to display a view of at least a part of a floor plan of a spatial environment of the home automation system, and, - programming means arranged for programming at least one action of an actuator of the home automation system based on the currently displayed view of the floor plan and on a function of the actuator and/or a sensor of the home automation system, characterized in that - the evaluation device obtains, from the reception signals of a transmitter received by at least two sensors, a respective reception field strength together with a transmitter identification and a sensor identification as reception information, and detects a position from the reception information, - such that a mobile display device of the display means displays a part of the floor plan depending on the detected position within the floor plan.
A formulation which stabilizes a N . meningitidis 2086 protein composition, the formulation comprising a pH buffered saline solution, wherein the buffer has a pKa of 3.5 to 7.5, polysorbate 80, recombinant lipidated N . meningitidis 2086 protein, wherein the formulation further comprises aluminum phosphate as adjuvant and wherein the pH buffered saline solution of the formulation has a pH of 5.5 to 7.5.
A base for a parallel kinematics robot , the base comprising: a plurality of gear cavities , each gear cavity comprising a first bearing seat configured to receive an output shaft bearing , characterized in that the base consists of one piece in homogeneous material. a plurality of gear cavities , each gear cavity comprising a first bearing seat configured to receive an output shaft bearing , characterized in that the base consists of one piece in homogeneous material.
A print control apparatus for transferring transparent protective overcoat ink using a thermal transfer printing apparatus onto an image printed on a substrate, the print control apparatus comprising: extraction means configured to extract a contour of a subject in the image ; and control means configured to generate print data for transferring the protective overcoat ink using the thermal transfer printing apparatus, based on the extracted contour of the subject , wherein the control means is configured to generate the print data by assigning a high gradation value to achieve low glossiness to a contour line corresponding to the extracted contour of the subject and assigning a low gradation value to achieve high glossiness to a region inside the contour line corresponding to the subject , characterised in that the control means is further configured to generate the print data by assigning a mixture of the high gradation value and the low gradation value to an outer peripheral region of the subject which is outside the contour line so that the outer peripheral region has higher glossiness than the contour line and lower glossiness than the region inside the contour line corresponding to the subject . extraction means configured to extract a contour of a subject in the image ; and control means configured to generate print data for transferring the protective overcoat ink using the thermal transfer printing apparatus, based on the extracted contour of the subject , wherein the control means is configured to generate the print data by assigning a high gradation value to achieve low glossiness to a contour line corresponding to the extracted contour of the subject and assigning a low gradation value to achieve high glossiness to a region inside the contour line corresponding to the subject , characterised in that the control means is further configured to generate the print data by assigning a mixture of the high gradation value and the low gradation value to an outer peripheral region of the subject which is outside the contour line so that the outer peripheral region has higher glossiness than the contour line and lower glossiness than the region inside the contour line corresponding to the subject .
A system for measuring cloud parameters, the system comprising: a pulsed light projector configured to simultaneously project both a collimated pulsed beam along a projection axis into a narrow-field projection volume of a cloud atmosphere and a divergent pulsed beam into a wide-field projection volume of the cloud atmosphere ; and an optical detector aligned so as to detect portions the projected collimated and divergent pulsed beams that are backscattered from within a detection volume of the cloud atmosphere , the detection volume aligned with a detection axis different from the projection axis , wherein the detection volume intersects both the narrow-field and the wide-field projection volumes defining narrow-field/detection and wide-field/detection intersecting volumes, respectively, wherein a distance between the narrow-field/detection intersecting volume and the optical detector is greater than a predetermined distance, and wherein the optical detector is further configured to generate a signal indicative of the detected portions of the collimated and divergent pulsed beams backscattered from within both the narrow-field/detection and wide-field/detection intersecting volumes. a pulsed light projector configured to simultaneously project both a collimated pulsed beam along a projection axis into a narrow-field projection volume of a cloud atmosphere and a divergent pulsed beam into a wide-field projection volume of the cloud atmosphere ; and an optical detector aligned so as to detect portions the projected collimated and divergent pulsed beams that are backscattered from within a detection volume of the cloud atmosphere , the detection volume aligned with a detection axis different from the projection axis , wherein the detection volume intersects both the narrow-field and the wide-field projection volumes defining narrow-field/detection and wide-field/detection intersecting volumes, respectively, wherein a distance between the narrow-field/detection intersecting volume and the optical detector is greater than a predetermined distance, and wherein the optical detector is further configured to generate a signal indicative of the detected portions of the collimated and divergent pulsed beams backscattered from within both the narrow-field/detection and wide-field/detection intersecting volumes.
A soil-working machine with a machine frame , said machine frame having longitudinal members which extend in a forward direction and crossmembers which extend transversely to the forward direction , wherein at least one crossmember , by means of a bearing arrangement oriented transversely to the forward direction , is mounted so as to be rotatable in relation to at least one longitudinal member , wherein at least one tine , having resilient properties, with coulter is attached to the rotatable crossmember , which resilient properties are defined by spring forces of the tine and which coulter has a front edge and blades departing from the front edge and extending transversely to the forward direction , wherein the rotational position of the rotatable crossmember is variable in a manner dependent on the spring forces of the tine , characterized in that the variation of the rotational position is realized by means of an actuator, wherein the actuator is operatively connected to a control device, which control device is configured such that an automated variation of the rotational position is realized by means thereof.
A thermoform packaging machine comprising a forming station for producing packaging troughs from a bottom film , a sealing station for closing the packaging troughs with a top film by means of a sealing process as well as a cutting station for separating sealed packaging troughs from one another, wherein the cutting station comprises at least one cutting unit which is adapted to be relocated within the cutting station between different positions (P1, P2) in the production direction (R), characterized in that the cutting station further comprises a support by means of which respective bottoms of the sealed packaging troughs conveyed into the cutting station for the purpose of separation can, at least sectionwise, be supported from below, wherein the support comprises a plurality of support elements , which are arranged in a horizontal bearing plane (L) and which, according to the position (P1) of the cutting unit , form a predetermined gap at a position in the support at which a cutting operation takes place, said gap being adapted to be formed, by redistributing the support elements within the bearing plane (L), also at a different position in the support for using the cutting unit at a different position (P2) within the cutting station .
A method to write data in a memory node, comprising: receiving, at a first NVRAM memory node , new data to be written at a memory location in the first NVRAM memory node, the new data received from a device; at the first NVRAM memory node, reading old data from the memory location; at the first NVRAM memory node, writing the new data to the memory location; and sending the new data and the old data from the first NVRAM memory node to a second NVRAM memory node to store parity information in the second NVRAM memory node, the parity information determined at the second memory node based at least on the new data stored in the first NVRAM memory node ; wherein the device is a DRAM cache memory node in network communication with the first NVRAM memory device and with a processor , the data being forwarded data sourced by the processor in communication with the DRAM cache memory node. receiving, at a first NVRAM memory node , new data to be written at a memory location in the first NVRAM memory node, the new data received from a device; at the first NVRAM memory node, reading old data from the memory location; at the first NVRAM memory node, writing the new data to the memory location; and sending the new data and the old data from the first NVRAM memory node to a second NVRAM memory node to store parity information in the second NVRAM memory node, the parity information determined at the second memory node based at least on the new data stored in the first NVRAM memory node ; wherein the device is a DRAM cache memory node in network communication with the first NVRAM memory device and with a processor , the data being forwarded data sourced by the processor in communication with the DRAM cache memory node.
A computer-implemented method of simulating or optimizing hemodialysis access, the method comprising: receiving a patient-specific, three-dimensional anatomic model of a patient's vasculature; computing a pre-treatment hemodynamic characteristic of a pre-treatment geometry of a portion of the received three-dimensional anatomic model; receiving or determining a geometry of a planned treatment defining a vascular access in the portion of the anatomic model; simulating a post-treatment geometry of the vascular access in the portion of the anatomic model by modifying the geometry of the received three-dimensional anatomic model based on the geometry of said planned treatment; computing a post-treatment hemodynamic characteristic of the post-treatment geometry of the portion of the anatomic model having the vascular access; and generating a representation of the post-treatment hemodynamic characteristic. receiving a patient-specific, three-dimensional anatomic model of a patient's vasculature; computing a pre-treatment hemodynamic characteristic of a pre-treatment geometry of a portion of the received three-dimensional anatomic model; receiving or determining a geometry of a planned treatment defining a vascular access in the portion of the anatomic model; simulating a post-treatment geometry of the vascular access in the portion of the anatomic model by modifying the geometry of the received three-dimensional anatomic model based on the geometry of said planned treatment; computing a post-treatment hemodynamic characteristic of the post-treatment geometry of the portion of the anatomic model having the vascular access; and generating a representation of the post-treatment hemodynamic characteristic.
A spin torque transfer magnetic random access memory, hereinafter termed STT-MRAM cell structure, comprising: a conductive non-magnetic region having at least a first side, a second side parallel to the first side, and a third side perpendicular to each of the first side and the second side; a first region having a fixed magnetization and being disposed directly along the first side of the conductive non-magnetic region and in contact with the first side of the conductive non-magnetic region ; a second region having a fixed magnetization and being disposed directly along the second side of the conductive non-magnetic region and in contact with the second side of the conductive non-magnetic region , wherein the first region and the second region have their magnetizations fixed in opposite directions to each other; and a free region having a switchable magnetization and being disposed along the third side and touching the conductive non-magnetic region , wherein the conductive non-magnetic region is disposed between the first and second regions. a conductive non-magnetic region having at least a first side, a second side parallel to the first side, and a third side perpendicular to each of the first side and the second side; a first region having a fixed magnetization and being disposed directly along the first side of the conductive non-magnetic region and in contact with the first side of the conductive non-magnetic region ; a second region having a fixed magnetization and being disposed directly along the second side of the conductive non-magnetic region and in contact with the second side of the conductive non-magnetic region , wherein the first region and the second region have their magnetizations fixed in opposite directions to each other; and a free region having a switchable magnetization and being disposed along the third side and touching the conductive non-magnetic region , wherein the conductive non-magnetic region is disposed between the first and second regions.
A harvesting machine, in particular a baler or loading vehicle, having a cutting means for agricultural crop, wherein the cutting means comprises a plurality of cutting elements respectively acting in a cutting plane , wherein the cutting elements are disposed adjacent to each other with respect to a crop channel through which crop passes and, during the operation of the cutting means , protrude at least in part into the crop channel through a crop guide element provided with apertures and cooperate with a counter cutter for comminution of the crop, and a drivable feed rotor for feeding the crop, wherein the feed rotor forms the counter cutter , wherein the cutting means is freely rotatably and drivably mounted about a rotational axis , and wherein the cutting means comprises a support shaft on which at least one cutting element and/or a cutting blade is releasably disposed, characterized in that the at least one cutting element and/or cutting blade is disposed in a hinged manner.
Method for detecting material accumulation on a 3D-printing-hotend, comprising the steps of: capturing a temperature at the hotend; detecting of a heating power at the hotend; calculating a ratio of temperature and heating power; comparing the calculated ratio with a limit value; performing an action based on the comparison. capturing a temperature at the hotend; detecting of a heating power at the hotend; calculating a ratio of temperature and heating power; comparing the calculated ratio with a limit value; performing an action based on the comparison.
A Centralized Unit of a Next Generation NodeB, gNB-CU, comprising: circuitry to provide an interface to a plurality of Distributed Units of the Next Generation NodeB, gNB-DUs, , the gNB-CU implementing Radio Resource Control, RRC, layer and Packet Data Convergence Protocol, PDCP, layer functionality of the gNB and the gNB-DUs implementing Radio Link Control, RLC, layer, Media Access Control, MAC, layer, Physical, PHY, layer, and Radio Frequency, RF, layer functionality of the gNB; and one or more processors to: detect mobility of a User Equipment, UE, receiving PDCP Protocol Data Units , PDUs, from a first gNB-DU of the plurality of gNB-DUs to a second gNB-DU of the plurality of gNB-DUs; detect that particular PDCP PDUs transmitted, via the circuitry to provide the interface, to the first gNB-DU from which the mobility of the UE is detected, were undelivered by the first gNB-DU to the UE; and retransmit, via the circuitry to provide the interface and in response to the detection that the particular PDCP PDUs were undelivered, the particular PDCP PDUs to the second gNB-DU, of the plurality of gNB-DUs, to which mobility of the UE is detected. circuitry to provide an interface to a plurality of Distributed Units of the Next Generation NodeB, gNB-DUs, , the gNB-CU implementing Radio Resource Control, RRC, layer and Packet Data Convergence Protocol, PDCP, layer functionality of the gNB and the gNB-DUs implementing Radio Link Control, RLC, layer, Media Access Control, MAC, layer, Physical, PHY, layer, and Radio Frequency, RF, layer functionality of the gNB; and one or more processors to: detect mobility of a User Equipment, UE, receiving PDCP Protocol Data Units , PDUs, from a first gNB-DU of the plurality of gNB-DUs to a second gNB-DU of the plurality of gNB-DUs; detect that particular PDCP PDUs transmitted, via the circuitry to provide the interface, to the first gNB-DU from which the mobility of the UE is detected, were undelivered by the first gNB-DU to the UE; and retransmit, via the circuitry to provide the interface and in response to the detection that the particular PDCP PDUs were undelivered, the particular PDCP PDUs to the second gNB-DU, of the plurality of gNB-DUs, to which mobility of the UE is detected. detect mobility of a User Equipment, UE, receiving PDCP Protocol Data Units , PDUs, from a first gNB-DU of the plurality of gNB-DUs to a second gNB-DU of the plurality of gNB-DUs; detect that particular PDCP PDUs transmitted, via the circuitry to provide the interface, to the first gNB-DU from which the mobility of the UE is detected, were undelivered by the first gNB-DU to the UE; and retransmit, via the circuitry to provide the interface and in response to the detection that the particular PDCP PDUs were undelivered, the particular PDCP PDUs to the second gNB-DU, of the plurality of gNB-DUs, to which mobility of the UE is detected.
A system for performing a lower extremity intervention procedure, the system comprising: a bifurcated catheter comprising a proximal end and a distal end, wherein the distal end of the bifurcated catheter comprises a bifurcation, and wherein the bifurcated catheter further comprises at least one lumen that extends from the proximal end to the distal end of the bifurcated catheter , and wherein the bifurcated catheter further comprises a side hole ; and a flat wire attached within the at least one lumen of the bifurcated catheter , wherein the flat wire is attached to an inner wall of the at least one lumen of the bifurcated catheter from the proximal end to the bifurcation at the distal end; wherein the flat wire is configured to emerge from the side hole and function as a stabilization wire . a bifurcated catheter comprising a proximal end and a distal end, wherein the distal end of the bifurcated catheter comprises a bifurcation, and wherein the bifurcated catheter further comprises at least one lumen that extends from the proximal end to the distal end of the bifurcated catheter , and wherein the bifurcated catheter further comprises a side hole ; and a flat wire attached within the at least one lumen of the bifurcated catheter , wherein the flat wire is attached to an inner wall of the at least one lumen of the bifurcated catheter from the proximal end to the bifurcation at the distal end; wherein the flat wire is configured to emerge from the side hole and function as a stabilization wire .
A light detection and ranging system comprising: at least one first light source for emitting a light signal to the surroundings of the light detection and ranging system , multiple receiving optical sensors for receiving a light signal from the surroundings of the light detection and ranging system , and an optical receiver system for processing the signals of the multiple receiving optical sensors , wherein the optical receiver system comprises a separate receiver channel for each receiving optical sensor , each separate receiver channel comprising an amplifier with an adjustable gain for amplifying the signal of the corresponding receiving optical sensor , wherein the light detection and ranging system further comprises a second light source for emitting a light signal directly to a reference receiver channel and the multiple receiving optical sensors , wherein the optical receiver system comprises the reference receiver channel and at least one comparator for comparing the output of the reference receiver channel and the output of each of the separate receiver channels , the reference receiver channel comprising a reference optical sensor and a reference amplifier , and wherein the at least one comparator is configured to adjust the gain of the amplifiers of each separate receiver channel based on the result of the comparison of the output of the reference receiver channel and the output of the corresponding separate receiver channel . at least one first light source for emitting a light signal to the surroundings of the light detection and ranging system , multiple receiving optical sensors for receiving a light signal from the surroundings of the light detection and ranging system , and an optical receiver system for processing the signals of the multiple receiving optical sensors , wherein the optical receiver system comprises a separate receiver channel for each receiving optical sensor , each separate receiver channel comprising an amplifier with an adjustable gain for amplifying the signal of the corresponding receiving optical sensor , wherein the light detection and ranging system further comprises a second light source for emitting a light signal directly to a reference receiver channel and the multiple receiving optical sensors , wherein the optical receiver system comprises the reference receiver channel and at least one comparator for comparing the output of the reference receiver channel and the output of each of the separate receiver channels , the reference receiver channel comprising a reference optical sensor and a reference amplifier , and wherein the at least one comparator is configured to adjust the gain of the amplifiers of each separate receiver channel based on the result of the comparison of the output of the reference receiver channel and the output of the corresponding separate receiver channel .