mhurhangee/ep-ind-claims huggingface dataset:
An access node comprising a signal processor for pre-processing signals for crosstalk mitigation and a controller for controlling the operation of the signal processor, wherein the signal processor comprises a modulo unit configured to determine individual modulo shifts ( Δ) for respective transmit samples to be transmitted over respective communication channels based on first channel coupling information, and to add the modulo shifts to the respective unprecoded transmit samples, and a linear precoder configured to jointly process the resulting transmit samples based on second channel coupling information ( P'), and wherein the controller is configured to update the first channel coupling information and the second channel coupling information independently from each other.
A protection system for protecting a medical staff member against X-ray scatter radiation, comprising: a location unit and a determination unit, wherein the location unit is configured to detect the position of a shielding device and the position of the medical staff member to be protected, wherein the position of the shielding device is taken from a room model and/or a location tag to be arranged at the shielding device, wherein the determination unit is configured to determine an origin of potential X-ray scatter radiation, and wherein the determination unit is configured to determine if the shielding device is positioned to protect the medical staff member to be protected based on the origin of potential X-ray scatter radiation, the position of the shielding device and the position of the medical staff member to be protected. a location unit and a determination unit, wherein the location unit is configured to detect the position of a shielding device and the position of the medical staff member to be protected, wherein the position of the shielding device is taken from a room model and/or a location tag to be arranged at the shielding device, wherein the determination unit is configured to determine an origin of potential X-ray scatter radiation, and wherein the determination unit is configured to determine if the shielding device is positioned to protect the medical staff member to be protected based on the origin of potential X-ray scatter radiation, the position of the shielding device and the position of the medical staff member to be protected.
A computer-implemented method comprising: receiving, by a computing device, a user request to identify at least one object of an environment in which the computing device is situated; receiving, by the computing device, a classification for the at least one object; placing, by the computing device, an audio tag (404, 408, 416, 420) based on the classification for the at least one object in a representation of the environment, wherein the audio tag (404, 408, 416, 420) is associated with a sound perceived by a user to be emanating from the at least one object; characterised in that the method further comprises: receiving, by an audio AR interaction module of the computing device, a spoken question regarding the at least one object of the environment; generating, by the computing device, an answer to the question based on one or more of a cascade of machine learning models or a knowledge base graph; and based on the answer, replacing the audio tag by a second audio tag, wherein the second audio tag is associated with a sound perceived by a user to be emanating from the at least one object. receiving, by a computing device, a user request to identify at least one object of an environment in which the computing device is situated; receiving, by the computing device, a classification for the at least one object; placing, by the computing device, an audio tag (404, 408, 416, 420) based on the classification for the at least one object in a representation of the environment, wherein the audio tag (404, 408, 416, 420) is associated with a sound perceived by a user to be emanating from the at least one object; characterised in that the method further comprises: receiving, by an audio AR interaction module of the computing device, a spoken question regarding the at least one object of the environment; generating, by the computing device, an answer to the question based on one or more of a cascade of machine learning models or a knowledge base graph; and based on the answer, replacing the audio tag by a second audio tag, wherein the second audio tag is associated with a sound perceived by a user to be emanating from the at least one object. receiving, by an audio AR interaction module of the computing device, a spoken question regarding the at least one object of the environment; generating, by the computing device, an answer to the question based on one or more of a cascade of machine learning models or a knowledge base graph; and based on the answer, replacing the audio tag by a second audio tag, wherein the second audio tag is associated with a sound perceived by a user to be emanating from the at least one object.
Regulatory T cells (Tregs) for use in treating a subject having an immune disorder, comprising a) selectively inhibiting or blocking the expression and/or activity of PD-1 in Tregs; and b) contacting the Tregs with Teffs, thereby increasing suppression of effector function of Teffs by the Tregs, wherein-PD-1 expression and/or activity is selectively inhibited or blocked in the Tregs in vitro or ex vivo, wherein the Tregs contact the Teffs in vitro, or ex vivo, wherein the Tregs and Teffs are autologous or allogenic, and wherein the Tregs and/or Teffs are administered to the subject. wherein the Tregs contact the Teffs in vitro, or ex vivo, wherein the Tregs and Teffs are autologous or allogenic, and wherein the Tregs and/or Teffs are administered to the subject.
A method of producing a moulded mineral wool product, said method comprising the steps of: - providing a mixture by mixing mineral fibres with a binder composition, and - providing said mixture in a mould form, and then - curing the binder composition, wherein the binder composition comprises at least one hydrocolloid being gelatin derived from chemical degradation of collagen or produced by recombinant techniques, and then - removing the moulded product from the mould form. - providing a mixture by mixing mineral fibres with a binder composition, and - providing said mixture in a mould form, and then - curing the binder composition, wherein the binder composition comprises at least one hydrocolloid being gelatin derived from chemical degradation of collagen or produced by recombinant techniques, and then - removing the moulded product from the mould form.
A circuit arrangement for electromagnetic energy sensing comprising - a photo detector for detecting electromagnetic energy, - a signal generating means (4, 6, 12, 16) being suitable for generating a sequence of events, wherein an event interval of the sequence depends on the detected electromagnetic energy and wherein an event is a signal transfer between two logical levels forming a signal pulse, the signal generating means (4, 6, 12, 16) being coupled downstream of the photo detector and comprising - an integrator amplifier (4, 6), - a comparator having a first input coupled to the integrator amplifier (4, 6) and a second input for applying a reference voltage, - a signal event generator coupled downstream of an output of the comparator, the signal event generator being suitable for generating an event when being triggered by the comparator, - a counting means (30, 32, 34, 36) for measuring a time period until a given number of events has been generated, wherein the counting means (30, 32, 34, 36) comprises an event counter having an input coupled to the signal event generator and a further comparator having a first input coupled to an output of the event counter and a second input coupled to a register suitable for providing the given number of events. - a photo detector for detecting electromagnetic energy, - a signal generating means (4, 6, 12, 16) being suitable for generating a sequence of events, wherein an event interval of the sequence depends on the detected electromagnetic energy and wherein an event is a signal transfer between two logical levels forming a signal pulse, the signal generating means (4, 6, 12, 16) being coupled downstream of the photo detector and comprising - an integrator amplifier (4, 6), - a comparator having a first input coupled to the integrator amplifier (4, 6) and a second input for applying a reference voltage, - a signal event generator coupled downstream of an output of the comparator, the signal event generator being suitable for generating an event when being triggered by the comparator, - an integrator amplifier (4, 6), - a comparator having a first input coupled to the integrator amplifier (4, 6) and a second input for applying a reference voltage, - a signal event generator coupled downstream of an output of the comparator, the signal event generator being suitable for generating an event when being triggered by the comparator, - a counting means (30, 32, 34, 36) for measuring a time period until a given number of events has been generated, wherein the counting means (30, 32, 34, 36) comprises an event counter having an input coupled to the signal event generator and a further comparator having a first input coupled to an output of the event counter and a second input coupled to a register suitable for providing the given number of events.
A power tool (1; 90) comprising: a motor having a stator and a rotor, the stator including a front and a rear insulator (21, 22) respectively disposed forward and rearward of a stator core in an axial direction thereof, at least six coils respectively wound on the stator such that the coils are wound through the front and rear insulators (21, 22), winding wires respectively electrically connecting circumferentially-adjacent pairs of the coils, a short circuiting means that short circuits respective pairs of the winding wires that are positioned diagonally across from one another, characterised in that a sensor circuit board is attached to one of the front and rear insulators (21, 22), the sensor circuit board having at least one rotation detection device for detecting positions of permanent magnets provided on the rotor or on a centrifugal fan, and the short circuiting means is affixed to the front insulator or the rear insulator by a plurality of screws. a motor having a stator and a rotor, the stator including a front and a rear insulator (21, 22) respectively disposed forward and rearward of a stator core in an axial direction thereof, at least six coils respectively wound on the stator such that the coils are wound through the front and rear insulators (21, 22), winding wires respectively electrically connecting circumferentially-adjacent pairs of the coils, a short circuiting means that short circuits respective pairs of the winding wires that are positioned diagonally across from one another, characterised in that a sensor circuit board is attached to one of the front and rear insulators (21, 22), the sensor circuit board having at least one rotation detection device for detecting positions of permanent magnets provided on the rotor or on a centrifugal fan, and the short circuiting means is affixed to the front insulator or the rear insulator by a plurality of screws.
Single-lip drill, comprising a drill head, wherein the drill head has a rotational axis, a drilling diameter as well as a cutting edge, wherein a cutting face is assigned to the cutting edge, wherein two longitudinal grooves (33.1, 33.2) extending parallel to one another, namely an inner (33.1) and an outer (33.2) longitudinal groove, are present in the cutting face and a land is present between the inner longitudinal groove (33.1) and the outer longitudinal groove (33.2), characterized in that the land ends in the tip of the cutting edge.
A time of flight camera system (1, 3) arranged to resolve the direct path component or the multi-path component of modulated radiation reflected from a target, the camera system including a time of flight transmitter arranged to transmit modulated radiation at a target, and at least one pattern application structure operating between the transmitter and the target, the pattern application structure operating to apply a plurality of different structured light patterns to the modulated transmitter radiation, each pattern applied exhibiting spatial variation between component pixels making up the pattern, and an image sensor configured to measure radiation reflected from a target by capturing a plurality of images of reflections of the modulated transmitter radiation for a plurality of pixels of the image sensor, characterized by the time of flight camera system being arranged to calculate from the captured images the contribution of direct source reflection radiation reflected from the target at each of the plurality of pixels. a time of flight transmitter arranged to transmit modulated radiation at a target, and at least one pattern application structure operating between the transmitter and the target, the pattern application structure operating to apply a plurality of different structured light patterns to the modulated transmitter radiation, each pattern applied exhibiting spatial variation between component pixels making up the pattern, and an image sensor configured to measure radiation reflected from a target by capturing a plurality of images of reflections of the modulated transmitter radiation for a plurality of pixels of the image sensor, characterized by the time of flight camera system being arranged to calculate from the captured images the contribution of direct source reflection radiation reflected from the target at each of the plurality of pixels.
Harmonic pin ring gear, comprising - at least one inner ring (7, 7') with an external toothing (5,5') and - at least one outer ring (8, 8') with an internal toothing (6, 6'), - a pin ring (1, 3) with pins that comprise a circular cross section, - a rotor with a transmitter (4, 4') for dragging the pins of the pin ring into the teeth of the outer ring (8, 8') and into the teeth of the inner ring (7, 7'), wherein the inner ring (7, 7'), the rotor and the outer ring (8, 8') are arranged concentrically with respect to each other, wherein the transmitter (4, 4') is arranged within the pin ring (1, 3), and wherein the transmitter (4, 4') and the pin ring (1, 3) are arranged between the inner ring (8, 8') and the outer ring (7, 7'), wherein the transmitter (4, 4') deforms the pin ring such that the outer ring (8, 8') and the inner ring (7, 7') turn relative to each other, wherein the pin ring (1, 3) comprises a deformable pin retaining ring, wherein the pin retaining ring comprises groove-shaped recesses with a respective ground, in which the pins are loosely inserted on one side, characterized by a flexible thin section ball bearing, which is arranged in radial direction between the transmitter and the pin ring (1, 3), and wherein the pins rest at the opposite side on an outer ring of the flexible thin section ball bearing. - at least one inner ring (7, 7') with an external toothing (5,5') and - at least one outer ring (8, 8') with an internal toothing (6, 6'), - a pin ring (1, 3) with pins that comprise a circular cross section, - a rotor with a transmitter (4, 4') for dragging the pins of the pin ring into the teeth of the outer ring (8, 8') and into the teeth of the inner ring (7, 7'),
A composite part for an aircraft, the composite part comprising a fiber, the fiber comprising: an inner-volume portion having a first outer diameter and having a plurality of nanostructures and a first polymer, the nanostructures acting as an orientation template for orientation of the first polymer in a direction parallel to a longitudinal axis of the fiber; and, an outer-volume portion having a second outer diameter and having a second polymer, the outer-volume portion being in contact with and completely encompassing the inner-volume portion, wherein the inner-volume portion has at least one of a tensile modulus and a tensile strength that are higher than at least one of a tensile modulus and a tensile strength of the outer-volume portion, wherein the first polymer and the second polymer are identical polymers, wherein the first polymer and the second polymer are a polymer comprising polyacrylonitrile, pitch, polyphenylene sulfide, viscose, cellulose, polyvinylidene chloride (PVDC), or polyvinyl alcohol, wherein the nanostructures comprise carbon nanostructures, nanotubes, carbon nanotubes, halloysite nanotubes, or boron nitride nanotubes. an inner-volume portion having a first outer diameter and having a plurality of nanostructures and a first polymer, the nanostructures acting as an orientation template for orientation of the first polymer in a direction parallel to a longitudinal axis of the fiber; and, an outer-volume portion having a second outer diameter and having a second polymer, the outer-volume portion being in contact with and completely encompassing the inner-volume portion, wherein the inner-volume portion has at least one of a tensile modulus and a tensile strength that are higher than at least one of a tensile modulus and a tensile strength of the outer-volume portion, wherein the first polymer and the second polymer are identical polymers, wherein the first polymer and the second polymer are a polymer comprising polyacrylonitrile, pitch, polyphenylene sulfide, viscose, cellulose, polyvinylidene chloride (PVDC), or polyvinyl alcohol,
A method of wireless communication, performed by a serving node (110a, 110b, 110c), comprising: designating one or more transmit antennas of the node assigned to at least one first carrier of the node (110a, 110b, 110c) for use with a second carrier of the node (110a, 110b, 110c), wherein the at least one first carrier is one of partially or completely inactive for one or more subframes or a fraction of a subframe in which transmit antennas assigned to the at least one first carrier will be idle, and wherein the one or more transmit antennas designated for use with the second carrier are borrowed from transmit antennas assigned to the at least one first carrier being idle; transmitting at least one of a control channel, a data channel, or a reference signal with a set of antenna ports on the second carrier, wherein the set of antenna ports is based, at least in part, on a combination of the one or more transmit antennas assigned to the at least one first carrier and designated for use with the second carrier and one or more transmit antennas of the node assigned to the second carrier; and transmitting one or more channel state information reference signal, CSI-RS configurations to one or more mobile devices, wherein the one or more CSI-RS configurations reflect the combination of the one or more transmit antennas, wherein the one or more CSI-RS configurations indicate, to the one or more mobile devices, a number of antenna ports in the set of antenna ports that will be used by the node (110a, 110b, 110c) to transmit the at least one of a control channel, a data channel, or a reference signal. designating one or more transmit antennas of the node assigned to at least one first carrier of the node (110a, 110b, 110c) for use with a second carrier of the node (110a, 110b, 110c), wherein the at least one first carrier is one of partially or completely inactive for one or more subframes or a fraction of a subframe in which transmit antennas assigned to the at least one first carrier will be idle, and wherein the one or more transmit antennas designated for use with the second carrier are borrowed from transmit antennas assigned to the at least one first carrier being idle; transmitting at least one of a control channel, a data channel, or a reference signal with a set of antenna ports on the second carrier, wherein the set of antenna ports is based, at least in part, on a combination of the one or more transmit antennas assigned to the at least one first carrier and designated for use with the second carrier and one or more transmit antennas of the node assigned to the second carrier; and transmitting one or more channel state information reference signal, CSI-RS configurations to one or more mobile devices, wherein the one or more CSI-RS configurations reflect the combination of the one or more transmit antennas, wherein the one or more CSI-RS configurations indicate, to the one or more mobile devices, a number of antenna ports in the set of antenna ports that will be used by the node (110a, 110b, 110c) to transmit the at least one of a control channel, a data channel, or a reference signal.
The solar battery control apparatus comprising: a solar battery configured to be installed in a vehicle; a vehicle speed detecting unit configured to detect a speed of the vehicle; a load circuit connected to the solar battery and configured to be capable of being controlled to vary a generated current input thereto from the solar battery; and a control unit configured to perform Maximum Power Point Tracking MPPT control to search for a Maximum Power Point MPP of the solar battery while controlling the load circuit to vary the generated current of the solar battery, characterized in that the control unit is further configured to vary the generated current within a range having a certain upper limit value upon the speed of the vehicle being detected by the vehicle speed detecting unit to be greater than a predetermined speed; wherein the predetermined speed is set to be less than a speed of the vehicle at which the generated current in the MPPT control becomes unable to be varied to correspond to a change in an i-V output characteristic of the generated current and a generated voltage of the solar battery, the change being caused by a variance of a solar radiation angle to the solar battery according to movement of the traveling vehicle, and the certain upper limit value is set to be less than a value of short-circuiting current of the solar battery having been reduced according to the change in the i-V output characteristic. a solar battery configured to be installed in a vehicle; a vehicle speed detecting unit configured to detect a speed of the vehicle; a load circuit connected to the solar battery and configured to be capable of being controlled to vary a generated current input thereto from the solar battery; and a control unit configured to perform Maximum Power Point Tracking MPPT control to search for a Maximum Power Point MPP of the solar battery while controlling the load circuit to vary the generated current of the solar battery, characterized in that the control unit is further configured to vary the generated current within a range having a certain upper limit value upon the speed of the vehicle being detected by the vehicle speed detecting unit to be greater than a predetermined speed; wherein the predetermined speed is set to be less than a speed of the vehicle at which the generated current in the MPPT control becomes unable to be varied to correspond to a change in an i-V output characteristic of the generated current and a generated voltage of the solar battery, the change being caused by a variance of a solar radiation angle to the solar battery according to movement of the traveling vehicle, and the certain upper limit value is set to be less than a value of short-circuiting current of the solar battery having been reduced according to the change in the i-V output characteristic.
A filter housing comprising an accommodation space for at least partly accommodating a filter, wherein the filter housing further comprises at least one coupling element configured to indirectly or directly mate with at least one mating coupling element of a mating filter housing; wherein the coupling element is integrally formed on a portion of the filter housing; characterized in that the coupling element is further configured for attaching at least one external device (208, 220) and the coupling element is further configured to provide an electrical connection for at least one of receiving, transmitting, and carrying at least one of communication, power and electrical signals.