mhurhangee/patent-ind-claim-en huggingface dataset:
Device for inspecting a container , comprising at least one camera with an optical axis for inspecting at least one container which has a container axis , at least one receptacle for receiving the container to be inspected), at least one incident light for illuminating the container to be inspected, in particular a head area of the container , at least one transmitted light for transilluminating the container to be inspected, at least one reflector which reflects a beam path of the incident light and/or the transmitted light to the camera , wherein the optical axis is spaced apart from the container axis when the container is in the receptacle , characterized in that the camera is positioned such that simultaneously in a first part of the image recorded by the camera a top view of the container and in the other image part a further view of the container , in particular a side view of the container in transmitted light or a reflection of the container in incident light , can be recorded.
Alkaline phosphatase (AP) for use in a method to treat sepsis-associated acute kidney disease injury (SA-AKI) in a subject in need thereof, comprising administering an effective amount of AP to said subject, wherein (i) the subject has an eGFR (estimated glomerular filtration rate) < 60 ml/min prior to the treatment with AP, (ii) the AP is administered in at least one 500 U/kg to 2,000 U/kg dose, and (iii) the administration of the AP results in an increase in renal function. (i) the subject has an eGFR (estimated glomerular filtration rate) < 60 ml/min prior to the treatment with AP, (ii) the AP is administered in at least one 500 U/kg to 2,000 U/kg dose, and (iii) the administration of the AP results in an increase in renal function.
A polyarylene sulfide resin composition comprising a polyarylene sulfide resin (A), a glass fiber (B), and a silane coupling agent (C) blended as essential components, wherein the glass fiber (B) is a glass fiber having, in the glass fiber, a ZrO 2 content of 16 mass% or more, a TiO 2 content of 5 to 10 mass% or less, and a CaO content of 0.1 to 5 mass%, and, per 100 parts by mass of the polyarylene sulfide resin (A), the glass fiber (B) is within a range of 10 to 100 parts by mass, and the silane coupling agent (C) is within a range of 0.01 to 10 parts by mass. wherein the glass fiber (B) is a glass fiber having, in the glass fiber, a ZrO 2 content of 16 mass% or more, a TiO 2 content of 5 to 10 mass% or less, and a CaO content of 0.1 to 5 mass%, and, per 100 parts by mass of the polyarylene sulfide resin (A), the glass fiber (B) is within a range of 10 to 100 parts by mass, and the silane coupling agent (C) is within a range of 0.01 to 10 parts by mass.
A method for loading and/or unloading a loading space , in particular the loading space of a transport vehicle, using a loading vehicle which drives at least once into the loading space in order to deposit and/or pick up at least one load object, an access area of the loading space being protected in a stationary protection by at least one first sensor (18a-b) that detects the presence of an object in the access area , and the loading vehicle being protected in a mobile protection by at least one second sensor that detects the presence of an object in front of the loading vehicle and thus stationary and mobile protection jointly ensure that the loading vehicle does not collide with unexpected objects during loading and/or unloading, characterized in that , when entering the loading space , the loading vehicle first moves into a first position which is so close to the protected access area that no person can fit between the loading vehicle and the protected access area , and then the protection of the access area by the first sensor (18a-b) is adapted in such a way that a passage corridor is created for the loading vehicle , thus partial muting takes place in the stationary protection, which enables the loading vehicle to drive through the protected access area into the loading space .
Aircraft turbine engine including a primary air flow path wherein a low-pressure compressor and a high-pressure compressor are arranged, a secondary air flow path which is located around the primary path and coaxially with the primary path , including a straightener of the air stream flowing in the secondary path, including a plurality of vanes distributed around a main axis (A) of the turbine engine , a pressurized air circuit extracting air between the low-pressure compressor and the high-pressure compressor or in the high-pressure compressor to produce a pressurized air stream supplying at least one component of the turbine engine , said at least one component being located radially in the turbine engine in the vicinity of a main axis (A) of the turbine engine with respect to the primary path , wherein the pressurized air circuit includes a heat exchanger between the pressurized air stream and the air stream flowing in the secondary path , which is arranged in at least one vane of the straightener, wherein the heat exchanger includes a duct arranged in said at least one vane , which includes a pressurized air inlet and a pressurized air outlet which are located at the same radial end of said vane , characterized in that it includes a lubrication circuit wherein a lubrication fluid circulates, including a section arranged in said vane . a secondary air flow path which is located around the primary path and coaxially with the primary path , including a straightener of the air stream flowing in the secondary path, including a plurality of vanes distributed around a main axis (A) of the turbine engine , a pressurized air circuit extracting air between the low-pressure compressor and the high-pressure compressor or in the high-pressure compressor to produce a pressurized air stream supplying at least one component of the turbine engine , said at least one component being located radially in the turbine engine in the vicinity of a main axis (A) of the turbine engine with respect to the primary path , wherein the pressurized air circuit includes a heat exchanger between the pressurized air stream and the air stream flowing in the secondary path , which is arranged in at least one vane of the straightener, wherein the heat exchanger includes a duct arranged in said at least one vane , which includes a pressurized air inlet and a pressurized air outlet which are located at the same radial end of said vane , characterized in that it includes a lubrication circuit wherein a lubrication fluid circulates, including a section arranged in said vane .
An inverter control device configured to generate a PWM pulse signal using a carrier signal having a carrier frequency that is k wherein k is larger than or equal to 1 and is a multiple of 0.5 times a reference carrier frequency and to regenerate a PWM duty cycle at an interval of half a cycle of the carrier signal, the inverter control device comprising control means configured to execute first processing at an interval of one cycle at the reference carrier frequency and configured to execute second processing at an interval of half a cycle of the carrier signal, wherein the first processing includes the steps of: calculating (SA2) a two-phase current (i q , i d ) by converting a measured motor current from three-phase to two-phase; and calculating (SA3) a two-phase voltage command value (v q *, v d *) and a first electrical angle (θ) from the two-phase current (i q , i d ), the second processing includes the steps of: calculating (SB1) a second electrical angle (θ') by adding a shift angle (Δθ) obtained based on the time elapsed from the first processing to the first electrical angle (θ) calculated in the first processing; calculating (SB2) a three-phase voltage command value (v u *, v v *, v w *) by converting the two-phase voltage command value (v q *, v d *) obtained in the first processing from two-phase to three-phase using the calculated second electrical angle ; and calculating (SB3) a duty cycle (duty_u, duty_v, duty_w) of the PWM pulse signal from the three-phase voltage command value (v u *, v v *, v w *), and wherein the control means is configured to prioritize the second processing over the first processing, whereby if the second processing execution timing occurs during execution of the first processing, the second processing is executed by interrupting the first processing. calculating (SA2) a two-phase current (i q , i d ) by converting a measured motor current from three-phase to two-phase; and calculating (SA3) a two-phase voltage command value (v q *, v d *) and a first electrical angle (θ) from the two-phase current (i q , i d ), calculating (SB1) a second electrical angle (θ') by adding a shift angle (Δθ) obtained based on the time elapsed from the first processing to the first electrical angle (θ) calculated in the first processing; calculating (SB2) a three-phase voltage command value (v u *, v v *, v w *) by converting the two-phase voltage command value (v q *, v d *) obtained in the first processing from two-phase to three-phase using the calculated second electrical angle ; and calculating (SB3) a duty cycle (duty_u, duty_v, duty_w) of the PWM pulse signal from the three-phase voltage command value (v u *, v v *, v w *), and wherein the control means is configured to prioritize the second processing over the first processing, whereby if the second processing execution timing occurs during execution of the first processing, the second processing is executed by interrupting the first processing.
Prosthesis anchor for a prosthesis, with a clamping shaft having a threaded portion for transmitting an axial relative movement between at least one sleeve body which can be placed against an inner wall surface of a recess in a bone and can be pretensioned, in a radial direction with respect to the clamping shaft , against the inner wall surface , wherein the sleeve body has at least two wedge sleeves which are movable relative to each other and which each have an oblique surface which is inclined relative to the cross-sectional plane to their longitudinal axis, wherein the internal diameter of the wedge sleeves is greater than the diameter of the clamping sleeve , such that each wedge sleeve encloses an annular gap with the clamping shaft in the non-use position, and the wedge sleeves , in the use position, are braced axially against each other, by means of a clamping body having a threaded receptacle for the threaded portion of the clamping shaft , in such a way that the wedge sleeves in the use position are displaced by a distance (A) from the non-use position in opposite directions transverse to the clamping shaft , characterized in that the clamping shaft is connected to at least one wedge sleeve for conjoint rotation.
An isolated interface circuit for a modular energy system , the isolated interface circuit comprising: a comparator comprising a first input configured to couple to a switch , a second input configured to couple to a reference voltage, and an output; a duplicate comparator comprising a first input configured to couple to the switch, a second input configured to couple to the reference voltage, and an output; an expander circuit comprising at least two inputs, wherein the output of the comparator is coupled to one of the at least two inputs of the expander circuit, and wherein the output of the duplicate comparator is coupled to other of the at least two inputs of the expander circuit, the expander circuit comprising an output; an isolator circuit comprising an input and an output, wherein the input is coupled to the output of the expander circuit; and a controller coupled to the output of the isolator circuit, wherein the controller is configured to: compare the output of the comparator with the output of the duplicate comparator; and determine activation or deactivation of a surgical instrument coupled to the controller based on the comparison. a comparator comprising a first input configured to couple to a switch , a second input configured to couple to a reference voltage, and an output; a duplicate comparator comprising a first input configured to couple to the switch, a second input configured to couple to the reference voltage, and an output; an expander circuit comprising at least two inputs, wherein the output of the comparator is coupled to one of the at least two inputs of the expander circuit, and wherein the output of the duplicate comparator is coupled to other of the at least two inputs of the expander circuit, the expander circuit comprising an output; an isolator circuit comprising an input and an output, wherein the input is coupled to the output of the expander circuit; and a controller coupled to the output of the isolator circuit, wherein the controller is configured to: compare the output of the comparator with the output of the duplicate comparator; and determine activation or deactivation of a surgical instrument coupled to the controller based on the comparison. compare the output of the comparator with the output of the duplicate comparator; and determine activation or deactivation of a surgical instrument coupled to the controller based on the comparison.
A method for controlling a single coil brushless DC motor having an electrical time constant, the method comprising electrical half period sequences which comprise a pulse train which comprises at least two driving pulses of a same polarity, characterised in that each driving pulse comprises: - applying a driving signal during a torque generating period, to increase a phase current, followed by a non-torque generating period, during which the phase current is reducing, - monitoring the phase current during a sensing window thereby obtaining phase current information, wherein the sensing window lasts at least during a time constant, which is the electrical time constant or an approximation of the electrical time constant, if the sensing window is during the torque generating period, and wherein the sensing window minimally lasts until the phase current has reduced to less than half the maximum phase current which was generated during the torque generating period if the sensing window is during the non-torque generating period, - and determining parameters for the ongoing electrical half period, and/or for at least one next electrical half period sequence based on the obtained phase current information. - applying a driving signal during a torque generating period, to increase a phase current, followed by a non-torque generating period, during which the phase current is reducing, - monitoring the phase current during a sensing window thereby obtaining phase current information, wherein the sensing window lasts at least during a time constant, which is the electrical time constant or an approximation of the electrical time constant, if the sensing window is during the torque generating period, and wherein the sensing window minimally lasts until the phase current has reduced to less than half the maximum phase current which was generated during the torque generating period if the sensing window is during the non-torque generating period, - and determining parameters for the ongoing electrical half period, and/or for at least one next electrical half period sequence based on the obtained phase current information.
A user equipment, UE, configured to receive a Channel State Information, CSI, request in an uplink, UL, grant in downlink control information, DCI, format 0 transmitted to the UE by a primary cell in a wireless communication system , the UE comprising one or more processing circuits configured to: - monitor control channel, PDCCH, candidates with cyclic redundancy check, CRC, scrambled by the UE's radio network temporary identity, RNTI, , wherein the DCI message has a common payload size and the same first control channel element, CCE, index, where different sets of DCI information fields are used for requesting aperiodic CSI depending whether the UL grant is received by the UE in the Common Search Space, CSS, or UE Search Space, USS, as defined in a common search space and a UE-specific search space on the primary cell; and - assume that, for the PDCCH candidates, only the PDCCH in the common search space or only the PDCCH in the UE-specific search space is transmitted by the primary cell, depending on the radio resource control, RRC configuration of the UE, and wherein the one or more processing circuits shall assume by default that said DCI message is transmitted by the primary cell in the common search space, and shall instead assume that said DCI message is transmitted by the primary cell in the UE-specific search space if the UE is so configured by RRC. - monitor control channel, PDCCH, candidates with cyclic redundancy check, CRC, scrambled by the UE's radio network temporary identity, RNTI, , wherein the DCI message has a common payload size and the same first control channel element, CCE, index, where different sets of DCI information fields are used for requesting aperiodic CSI depending whether the UL grant is received by the UE in the Common Search Space, CSS, or UE Search Space, USS, as defined in a common search space and a UE-specific search space on the primary cell; and - assume that, for the PDCCH candidates, only the PDCCH in the common search space or only the PDCCH in the UE-specific search space is transmitted by the primary cell, depending on the radio resource control, RRC configuration of the UE, and wherein the one or more processing circuits shall assume by default that said DCI message is transmitted by the primary cell in the common search space, and shall instead assume that said DCI message is transmitted by the primary cell in the UE-specific search space if the UE is so configured by RRC.
A graph database management system comprising at least one processor and at least one memory including computer program code, the at least one memory and computer program code configured, with the at least one processor, to perform storing , in the memory, data in the form of data records in accordance with an entity-relationship model, the data records comprising at least a subject, a predicate, and an object, the database management system being further configured to perform: - deriving memory addresses of respective objects stored in the memory; - associating the memory addresses with the respective objects; and - storing , in the memory, the memory addresses associated with the respective objects; wherein the associating further comprises: determining unique identifiers for the respective objects and associating the memory addresses with the respective unique identifiers; and wherein the unique identifiers are derived based on the subject and predicate associated with the respective objects; and wherein the storing further comprises storing the memory addresses and the respective unique identifiers. - deriving memory addresses of respective objects stored in the memory; - associating the memory addresses with the respective objects; and - storing , in the memory, the memory addresses associated with the respective objects; wherein the associating further comprises: determining unique identifiers for the respective objects and associating the memory addresses with the respective unique identifiers; and wherein the unique identifiers are derived based on the subject and predicate associated with the respective objects; and wherein the storing further comprises storing the memory addresses and the respective unique identifiers.
Hermetically sealed container (C) comprising: - a container main body with a rim ; - a lid having an inner face directed towards the container main body , an outer face directed outwards, and a stop surface formed on the inner face of the lid and suitable for abutting against said rim of the container main body , so that the lid can hermetically close the container main body ; - a lip seal compressed between the container main body and the lid to ensure that the container (C) is hermetically sealed; and - a control lever hinged to the lid so as to define a holding portion capable of being actuated by the user and an operating portion ; said lid comprising a recessed seat (S, D) formed on the outer face of the lid , which accommodates said control lever in such a way that when the control lever is in closing position, the holding portion of the control lever is recessed in the recessed seat (S, D) and does not protrude with respect to the lid , preventing any accidental actuations; characterized in that said control lever has an abutment surface capable of abutting against said rim of the container main body , said control lever being able to move, by operating the holding portion , from a closing position, wherein the stop surface of the lid is abutting against the rim of the container main body , to an opening position, wherein the stop surface of the lid is separated from the rim of the container main body ; said operating portion of the control lever being configured to lift a portion of the stop surface of the lid from the rim of the container main body . - a container main body with a rim ; - a lid having an inner face directed towards the container main body , an outer face directed outwards, and a stop surface formed on the inner face of the lid and suitable for abutting against said rim of the container main body , so that the lid can hermetically close the container main body ; - a lip seal compressed between the container main body and the lid to ensure that the container (C) is hermetically sealed; and - a control lever hinged to the lid so as to define a holding portion capable of being actuated by the user and an operating portion ; said lid comprising a recessed seat (S, D) formed on the outer face of the lid , which accommodates said control lever in such a way that when the control lever is in closing position, the holding portion of the control lever is recessed in the recessed seat (S, D) and does not protrude with respect to the lid , preventing any accidental actuations; characterized in that said control lever has an abutment surface capable of abutting against said rim of the container main body , said control lever being able to move, by operating the holding portion , from a closing position, wherein the stop surface of the lid is abutting against the rim of the container main body , to an opening position, wherein the stop surface of the lid is separated from the rim of the container main body ; said operating portion of the control lever being configured to lift a portion of the stop surface of the lid from the rim of the container main body .
A self-propelled agricultural working machine with a working unit which has a working width transverse to a direction of travel of the working machine and is intended, during the travel of the working machine , to process a strip of an agriculturally usable area the width of which corresponds to the working width, with a sensor assembly for detecting an edge between, on the one hand, a strip of the usable area which has already been processed or an area which is not to be processed, and on the other hand, an unprocessed portion of the usable area , and with an assistance system for defining a travel route for the working machine with the aid of the detected edge , characterized in that the assistance system is configured to detect, by means of the sensor assembly , whether the width of the unprocessed portion is smaller than the working width and, if this is the case, to define the travel route in a manner such that during navigation of the travel route , the working unit projects over the unprocessed portion on two sides.