mhurhangee/patent-ind-claim-en huggingface dataset:
A component for a remote radio apparatus, RRU, wherein the component comprises a maintenance cavity , an optical module , and an optical module heat sink , wherein the maintenance cavity and the optical module are integrally connected; the optical module is mounted on a bottom surface of the optical module heat sink ; the maintenance cavity and the optical module heat sink are mounted on a side surface of a body of the RRU; and a mainboard of the RRU is mounted on a front surface of the body , and a mainboard heat sink of the RRU is mounted on the mainboard of the RRU, wherein the mainboard heat sink covers the mainboard , and the mainboard heat sink and the optical module heat sink are spaced by a preset distance. the maintenance cavity and the optical module are integrally connected; the optical module is mounted on a bottom surface of the optical module heat sink ; the maintenance cavity and the optical module heat sink are mounted on a side surface of a body of the RRU; and a mainboard of the RRU is mounted on a front surface of the body , and a mainboard heat sink of the RRU is mounted on the mainboard of the RRU, wherein the mainboard heat sink covers the mainboard , and the mainboard heat sink and the optical module heat sink are spaced by a preset distance.
A method for validating a model of vehicle dynamics for use in autonomous driving, the method comprising setting (S2) a wheel slip limit on an operation of at least one vehicle torque device , obtaining (S4) a model associated with vehicle dynamics based on the set wheel slip limit, and validating (S5) the model of vehicle dynamics based on the set wheel slip limit. setting (S2) a wheel slip limit on an operation of at least one vehicle torque device , obtaining (S4) a model associated with vehicle dynamics based on the set wheel slip limit, and validating (S5) the model of vehicle dynamics based on the set wheel slip limit.
A method of processing a touch input of a portable terminal , the method comprising: detecting (S1010) a hover input of a stylus physically separated from a touch screen of the portable terminal without physical contact with the touch screen; detecting (S1020) a first touch input of a user's finger concurrent with the hover input, the user's finger being in physical contact with the touch screen; characterized in calculating (S1030) a first distance between positions of the hover input and the first touch input; detecting a second touch input of the user's finger concurrent with the hover input, the user's finger being in physical contact with the touch screen; calculating a second distance between positions of the hover input and the second touch input; selecting the shortest distance among the first distance and the second distance by comparing the first distance and the second distance; comparing (S1040) the selected distance with a predetermined threshold related to a distance; and in response to a result of the comparison, performing one of: (a) ignoring (S1050) the first touch input and the second touch input when the selected distance exceeds the predetermined threshold, and (b) processing (S1060) the first touch input and the second touch input when the selected distance is within the predetermined threshold even though a non-selected distance exceeds the predetermined threshold. detecting (S1010) a hover input of a stylus physically separated from a touch screen of the portable terminal without physical contact with the touch screen; detecting (S1020) a first touch input of a user's finger concurrent with the hover input, the user's finger being in physical contact with the touch screen; characterized in calculating (S1030) a first distance between positions of the hover input and the first touch input; detecting a second touch input of the user's finger concurrent with the hover input, the user's finger being in physical contact with the touch screen; calculating a second distance between positions of the hover input and the second touch input; selecting the shortest distance among the first distance and the second distance by comparing the first distance and the second distance; comparing (S1040) the selected distance with a predetermined threshold related to a distance; and in response to a result of the comparison, performing one of: (a) ignoring (S1050) the first touch input and the second touch input when the selected distance exceeds the predetermined threshold, and (b) processing (S1060) the first touch input and the second touch input when the selected distance is within the predetermined threshold even though a non-selected distance exceeds the predetermined threshold.
A compressor section for use in a gas turbine engine comprising: a lower pressure compressor rotor ; a higher pressure compressor rotor having a hub and a plurality of blades extending radially outwardly from said hub and an outer housing surrounding an outer periphery of said blades; and a tap for tapping air at a radially outer first location in a duct intermediate the lower pressure compressor rotor and the higher pressure compressor rotor , passing the tapped air through a heat exchanger , and returning the tapped air to an outlet at a second location which is radially inward of said first location, to provide cooling air adjacent to said hub to cool said hub along its length, wherein said outlet is also in said duct, and wherein a fan drives air downstream of said heat exchanger to said outlet . a lower pressure compressor rotor ; a higher pressure compressor rotor having a hub and a plurality of blades extending radially outwardly from said hub and an outer housing surrounding an outer periphery of said blades; and a tap for tapping air at a radially outer first location in a duct intermediate the lower pressure compressor rotor and the higher pressure compressor rotor , passing the tapped air through a heat exchanger , and returning the tapped air to an outlet at a second location which is radially inward of said first location, to provide cooling air adjacent to said hub to cool said hub along its length, wherein said outlet is also in said duct, and wherein a fan drives air downstream of said heat exchanger to said outlet .
An abrasive article , comprising: a bonded abrasive body disposed within an interior recess of a peripheral surface of a core , wherein the core comprises a polymer material and reinforcing fibers, and wherein the core has ; a heat deflection temperature (HDT) at 0.45 MPa of at least about 130°C and a shrinkage ratio of not greater than 3%.
A drill bit configured to be used to form a hole by machining a portion to be processed of a workpiece material (W) by means of drilling while a lubricant material for assisting machining process is in contact with the portion to be processed, the drill bit comprising: at least one cutting edge ; and a face positioned adjacent to the cutting edge , wherein, on the face, a recess exhibiting a prescribed planar shape is provided; characterized in that the recess is a substantially linear groove formed substantially parallel to the cutting edge ; wherein a dimension between the cutting edge and the groove is set to be 0.25 mm or more and 0.43 mm or less; wherein the groove is set to have an average width of 0.23 mm or more and 0.30 mm or less; wherein the recess is set to have a maximum depth of 0.05 mm or more and 0.15 mm or less. at least one cutting edge ; and a face positioned adjacent to the cutting edge , wherein, on the face, a recess exhibiting a prescribed planar shape is provided; characterized in that the recess is a substantially linear groove formed substantially parallel to the cutting edge ; wherein a dimension between the cutting edge and the groove is set to be 0.25 mm or more and 0.43 mm or less; wherein the groove is set to have an average width of 0.23 mm or more and 0.30 mm or less; wherein the recess is set to have a maximum depth of 0.05 mm or more and 0.15 mm or less.
An exhaust-gas purification system, which comprises an exhaust gas passage for an internal combustion engine; an oxidation catalyst in the exhaust-gas passage for an internal-combustion engine; the oxidation catalyst comprising platinum and palladium as catalytically active components, which promotes oxidation of nitrogen monoxide to nitrogen dioxide, wherein the oxidation catalyst comprises 1 to 55% by weight of the palladium relative to 100% by weight of the platinum; and configured such that a flow of exhaust gas discharged from an internal-combustion engine is introduced through the exhaust-gas passage to the oxidation catalyst ; and wherein a reducing agent supplying apparatus for supplying a reducing agent is positioned downstream, relative to the direction of the exhaust gas flow, of the oxidation catalyst in the exhaust-gas passage; and further a NO x reduction catalyst is installed downstream, relative to the direction of the exhaust gas flow, of the reducing agent supplying apparatus in the exhaust-gas passage, wherein the NO x reduction catalyst comprises a zeolite catalyst exchanged by copper; and the reducing agent is urea.
A tire, comprising a tire component comprising a tire rubber composition, the rubber composition comprising: at least one rubber component wherein a total styrene content based on the total rubber component is 2% by mass or higher; carbon black; and a benzohydrazide compound having two or more hydroxy groups. at least one rubber component wherein a total styrene content based on the total rubber component is 2% by mass or higher; carbon black; and a benzohydrazide compound having two or more hydroxy groups.
Set of devices comprising a receiver device allowing to broadcast television or radio programmes, said receiver device comprising means for receiving a multichannel signal (S_MC) capable of preserving a part of the signal transmitted on a particular channel allowing information to be received in the form of a television or radio programme, conversion means associated with propagation means for broadcasting said information and communication means , the set of devices further comprising a watch, called portable object , including an electronic module for the operation of said portable object, the electronic module comprising at least a calculation unit and a wireless communication circuit able to communicate with the communication means of the receiver device, characterised in that each particular channel is identified by a frequency identifier (ID_Y), and each programme is identified by at least one identifier (ID_X), the identifier (ID_X) being presented in the form of a code composed of several groups of characters each of which providing an indication, such as the frequency, the nature, the genre or the type of programme, the portable object being previously or manually programmed with at least one specific identifier (ID_P) associated with a type of programme by at least one of said indications, and in that the portable object is capable of detecting, via the wireless communication circuit , the presence of the receiver device and of acting on said receiver device by communicating thereto said specific identifier (ID_P) in order to change the particular channel and to select a particular channel whose programme currently being broadcast has at least one identifier (ID_X) comprising indications identical to said indications of the identifier (ID_P) programmed in the portable object .
Security element in the form of a multilayer film body, in particular a laminating film or transfer film, having an upper side facing towards the observer and a volume hologram which provides a first optically variable piece of information, wherein the security element has a layer, having a surface which has a relief structure which has a relief depth of more than 0 in one or more first regions , and has a relief depth of less than 2μm in one or more second regions , and the relief structure is filled with a volume-hologram material in the first regions of the layer, in which volume-hologram material the volume hologram is recorded, characterised in that the layer is a replicating layer , in the surface of which the relief structure is moulded, the relief structure has a relief depth of more than 10μm in the first regions , and has structural elements in the second regions or in sub-regions of the second regions, said structural elements providing a second optically variable piece of information, and a metallic layer is provided in the second regions or in sub-regions of the second regions, and the metallic layer is not provided in the first regions .
A microwave heating device, comprising: a heating chamber configured to accommodate a heating target object; a microwave generating unit configured to generate a microwave; a waveguide configured to transmit, to the heating chamber , the microwave generated by the microwave generating unit ; an opening disposed in the wall surface of the waveguide and configured to extract a part of the microwave from the waveguide ; and a reflected-wave detection unit configured to detect a part of a reflected wave being a microwave propagating from the heating chamber toward the microwave generating unit , the part of the reflected wave being extracted through the opening , characterised in that the reflected-wave detection unit is disposed within a range from the opening to a distance equal to 1/2 of a maximum opening length of the opening . a heating chamber configured to accommodate a heating target object; a microwave generating unit configured to generate a microwave; a waveguide configured to transmit, to the heating chamber , the microwave generated by the microwave generating unit ; an opening disposed in the wall surface of the waveguide and configured to extract a part of the microwave from the waveguide ; and a reflected-wave detection unit configured to detect a part of a reflected wave being a microwave propagating from the heating chamber toward the microwave generating unit , the part of the reflected wave being extracted through the opening , characterised in that the reflected-wave detection unit is disposed within a range from the opening to a distance equal to 1/2 of a maximum opening length of the opening .
An implantable medical system comprising at least - one pressure sensor, - one time-registration unit, and - one data processing unit, wherein the system is designed such that the following steps can be carried out: - register blood pressure values, at least temporarily, - evaluate the registered blood pressure values to determine data that describe a load, - evaluate the registered blood pressure values to determine data that describe respiration, characterized in that time intervals of a predefinable length are determined depending on the load, a load stage is ascribed to at least one part of the time intervals, and the data describing the respiration are evaluated for at least one part of the time intervals. - one pressure sensor, - one time-registration unit, and - one data processing unit, - register blood pressure values, at least temporarily, - evaluate the registered blood pressure values to determine data that describe a load, - evaluate the registered blood pressure values to determine data that describe respiration,
A headlamp control system comprising at least two lamp units to be respectively disposed in left and right front portions of a vehicle , each lamp unit including a light source having at least one light emitting element (51a to 51d, 51e), and a lens configured to form an illumination region (Ae) ahead of the vehicle by allowing light emitted from the light source to pass therethrough; a first driving mechanism configured to move the illumination region in a right and left direction; a camera configured to capture ahead of the vehicle and; a detection section configured to detect a person (P) existing ahead of the vehicle based on an image captured by the camera; characterized by a control section configured to control the first driving mechanism so that the illumination region includes the person (P) detected by the detection section, and to form a non-illumination region (Af) in the illumination region (Ae) so that at least a head of the person (P) is included in the non-illumination region (Af), wherein the non-illumination region (Af) has a lower end (Ag) set at a predetermined height for a certain distance from the vehicle, and wherein the lamp unit to be disposed in the left front portions of the vehicle and the lamp unit to be disposed in the right front portion of the vehicle are configured such that the heights of the lower ends (Ag) of the respective non-illumination regions (Af) are different from each other. each lamp unit including a light source having at least one light emitting element (51a to 51d, 51e), and a lens configured to form an illumination region (Ae) ahead of the vehicle by allowing light emitted from the light source to pass therethrough;
An system for providing docking guidance to a pilot of a taxiing aircraft , the system comprising: a camera configured for mounting at a camera location on the taxiing aircraft , the camera configured to generate a two-dimensional image of a scene external to the taxiing aircraft , the generated two-dimensional image comprising pixel data generated by a two-dimensional array of light-sensitive pixels within the camera; and a digital processor configured to identify first and second sets of pixel coordinates within the generated two-dimensional image of the scene external to the taxiing aircraft , the identified first and second sets of pixel coordinates corresponding to two vertically-separated and two laterally-separated indicia, respectively, of an alignment fiducial indicating a parking location for the taxiing aircraft , the digital processor further configured to calculate, based at least in part on the identified first pixel coordinates corresponding to the two vertically-separated indicia , a range to the parking location indicated by the alignment fiducial . a camera configured for mounting at a camera location on the taxiing aircraft , the camera configured to generate a two-dimensional image of a scene external to the taxiing aircraft , the generated two-dimensional image comprising pixel data generated by a two-dimensional array of light-sensitive pixels within the camera; and a digital processor configured to identify first and second sets of pixel coordinates within the generated two-dimensional image of the scene external to the taxiing aircraft , the identified first and second sets of pixel coordinates corresponding to two vertically-separated and two laterally-separated indicia, respectively, of an alignment fiducial indicating a parking location for the taxiing aircraft , the digital processor further configured to calculate, based at least in part on the identified first pixel coordinates corresponding to the two vertically-separated indicia , a range to the parking location indicated by the alignment fiducial .
Method for acquiring a spatial map of auditory perception of a subject, wherein said method comprises a plurality of successive test sequences, each test sequence comprising steps of: a) calibration of the subject's position, by displaying instructions to the subject, using a head-mounted visual display system worn by the subject, in order to acquire a reference position of the subject , the subject's position being measured using a motion capture system by measuring the spatial coordinates of a first location marker worn by the subject, said head-mounted display system preventing the subject from seeing his surroundings; b) choosing spatial coordinates of a target location (A1, B1, C1, A2, B2, C2, A3, B3, C3, A4, B4, C4) of a sound source device , said target location being located around the subject, c) emitting a predefined sound, using the sound source device placed at said target location, d) in response to acquisition instructions generated by the subject using an acquisition interface , acquiring an estimated location of said sound source device , by using the motion capture system to measure the spatial coordinates of a second location marker held and pointed by the subject towards a perceived location of the sound source, and measuring an orientation of the subject's gaze, using an eye-tracking device integrated with the head-mounted visual display system . a) calibration of the subject's position, by displaying instructions to the subject, using a head-mounted visual display system worn by the subject, in order to acquire a reference position of the subject , the subject's position being measured using a motion capture system by measuring the spatial coordinates of a first location marker worn by the subject, said head-mounted display system preventing the subject from seeing his surroundings; b) choosing spatial coordinates of a target location (A1, B1, C1, A2, B2, C2, A3, B3, C3, A4, B4, C4) of a sound source device , said target location being located around the subject, c) emitting a predefined sound, using the sound source device placed at said target location, d) in response to acquisition instructions generated by the subject using an acquisition interface , acquiring an estimated location of said sound source device , by using the motion capture system to measure the spatial coordinates of a second location marker held and pointed by the subject towards a perceived location of the sound source, and measuring an orientation of the subject's gaze, using an eye-tracking device integrated with the head-mounted visual display system .
In vitro method for generation of a T cell population enriched for T cells expressing a recombinant T cell receptor (TCR) comprising the steps: a) Incubating a composition comprising T cells with an anti-Cβ antibody selected from the group consisting of an anti-Cβ1 antibody and anti-Cβ2 antibody, b) Depleting T cells bound to the anti-Cβ antibody, c) Introducing into the T cell population obtained in step b) a recombinant TCR containing a Cβ chain to which the anti-Cβ antibody binds, d) Enriching T cells expressing the recombinant TCR in the population obtained in step c) using the anti-Cβ antibody. a) Incubating a composition comprising T cells with an anti-Cβ antibody selected from the group consisting of an anti-Cβ1 antibody and anti-Cβ2 antibody, b) Depleting T cells bound to the anti-Cβ antibody, c) Introducing into the T cell population obtained in step b) a recombinant TCR containing a Cβ chain to which the anti-Cβ antibody binds, d) Enriching T cells expressing the recombinant TCR in the population obtained in step c) using the anti-Cβ antibody.
A method for operating a mesh network using a protocol comprising an address and a payload, wherein the address and payload each have a predefined fixed length, the method comprising: using a hash function to generate a device address for a device from a graphical image showing the device or a multimedia file showing the device; assigning the generated device address to the device, wherein the device is part of the mesh network ; and in a transmission from a source to the device, providing the generated device address within a payload of the transmission. using a hash function to generate a device address for a device from a graphical image showing the device or a multimedia file showing the device; assigning the generated device address to the device, wherein the device is part of the mesh network ; and in a transmission from a source to the device, providing the generated device address within a payload of the transmission.