mhurhangee/ep-ind-claims huggingface dataset:
A machine for cutting fruit or vegetables into segments, comprising: a blade group; a presser arranged above the blade group and mobile according to an operating stroke along which it pushes a product in advancement through the blades; motor means, connected to the presser by means of a mobile structure, predisposed for activating along an operating stroke thereof; characterised in that the presser comprises: a central body, rigidly connected to the motor means; a peripheral body, arranged concentrically to the central body and deconstrained from the central body. a blade group; a presser arranged above the blade group and mobile according to an operating stroke along which it pushes a product in advancement through the blades; motor means, connected to the presser by means of a mobile structure, predisposed for activating along an operating stroke thereof; characterised in that the presser comprises: a central body, rigidly connected to the motor means; a peripheral body, arranged concentrically to the central body and deconstrained from the central body. a central body, rigidly connected to the motor means; a peripheral body, arranged concentrically to the central body and deconstrained from the central body.
Wiper blade device having at least one wiper strip unit, having at least one spring rail which has at least one fixing recess, and having at least one wiper blade adapter which has at least two holding elements (24, 24'), which at least partially engage around the at least one spring rail in an assembled state, and which is provided for forming a captive connection with the at least one wiper strip unit, wherein the at least one wiper blade adapter has at least one securing rib which at least partially extends through the fixing recess of the at least one spring rail to form a captive connection between the wiper strip unit and the wiper blade adapter in an assembled state, characterized in that the spring rail has a connecting recess which is arranged in particular next to the fixing recess and is provided to receive the at least one securing rib of the wiper blade adapter in a connecting position.
A roadway boundary element comprising one stationary element and one telescopic element, the stationary element and the telescopic element each having two side walls (11; 21) which are each connected to one another, the telescopic element being arranged displaceably along a longitudinal axis within the stationary element, the road boundary element having a traction drive extending in the direction of the longitudinal axis, in particular a chain drive, for displacing the telescopic element relative to the stationary element, characterized in that the traction drive is arranged between a side wall of the stationary element and a side wall of the telescopic element, in particular in a recess of the telescopic element.
Deformable support element for use in a bed system, including: • an elongated resting surface with a flexurally rigid middle portion and two flexible portions located each sideways to the flexurally rigid middle part, wherein the resting surface has an upper side and a lower side, two lateral sides and two extremities; • two edge supports; • flexible edge elements, of which respectively one edge element is connected with one end of the resting surface, said flexible edge elements allowing a directed movement of the flexible portions of the resting surface out of an unloaded configuration, in which the edge elements each rest on the edge support, when loaded upwards and inwards to the middle portion of the resting surface; and • one or several actuators that for the purpose of deforming the resting surface is resp. are arrayed between the edge elements and beneath the resting surface. • an elongated resting surface with a flexurally rigid middle portion and two flexible portions located each sideways to the flexurally rigid middle part, wherein the resting surface has an upper side and a lower side, two lateral sides and two extremities; • two edge supports; • flexible edge elements, of which respectively one edge element is connected with one end of the resting surface, said flexible edge elements allowing a directed movement of the flexible portions of the resting surface out of an unloaded configuration, in which the edge elements each rest on the edge support, when loaded upwards and inwards to the middle portion of the resting surface; and • one or several actuators that for the purpose of deforming the resting surface is resp. are arrayed between the edge elements and beneath the resting surface.
A channel quality information, CQI, reporting method comprising: receiving CQI control information consisting of a plurality of bits, the plurality of bits indicating whether an aperiodic CQI report is requested or not, characterized in that when the periodic CQI report is requested, the plurality of bits further indicating a resource indication specifying one or more component carriers of which the aperiodic CQI report is requested among a plurality of component carriers, wherein a combination of the plurality of bits jointly indicates both that the aperiodic CQI report is requested and the resource indication and no one bit of the plurality of bits alone indicates that the aperiodic CQI report is requested; and the method further comprising transmitting, when the periodic CQI report is requested, the periodic report of the one or more component carriers specified by the resource indication. receiving CQI control information consisting of a plurality of bits, the plurality of bits indicating whether an aperiodic CQI report is requested or not, characterized in that when the periodic CQI report is requested, the plurality of bits further indicating a resource indication specifying one or more component carriers of which the aperiodic CQI report is requested among a plurality of component carriers, wherein a combination of the plurality of bits jointly indicates both that the aperiodic CQI report is requested and the resource indication and no one bit of the plurality of bits alone indicates that the aperiodic CQI report is requested; and the method further comprising transmitting, when the periodic CQI report is requested, the periodic report of the one or more component carriers specified by the resource indication.
Handpiece configured to emit electromagnetic radio-frequency or ultrasound waves, comprising: - a body extending along a predefined extension direction between a first head end and a second end, said first head end being configured to come into contact with an individual's body surface portion, said body comprising a resonant actuator configured to generate radio-frequency or ultrasound waves and electrical connection means operatively connected with said resonant actuator to electrically power it, said body defining a cavity extending between said first head end and said second end, said resonant actuator and said electrical connection means being arranged in said cavity, said body comprising an internally hollow tip placed at said first head end, said tip being configured to accommodate said resonant actuator, said body comprising an internally hollow neck extending between said second end and said first head end so as to couple with said tip to define said inner cavity, said neck being configured to accommodate said electrical connection means, - insulating means arranged in said cavity to make said body sterilizable in autoclave, characterized in that - said tip is made of a conductive material so as to form a negative pole and comprises electrically insulating means placed in at least a portion of said tip so as to form an insulated positive pole. - a body extending along a predefined extension direction between a first head end and a second end, said first head end being configured to come into contact with an individual's body surface portion, said body comprising a resonant actuator configured to generate radio-frequency or ultrasound waves and electrical connection means operatively connected with said resonant actuator to electrically power it, said body defining a cavity extending between said first head end and said second end, said resonant actuator and said electrical connection means being arranged in said cavity, said body comprising an internally hollow tip placed at said first head end, said tip being configured to accommodate said resonant actuator, said body comprising an internally hollow neck extending between said second end and said first head end so as to couple with said tip to define said inner cavity, said neck being configured to accommodate said electrical connection means, - insulating means arranged in said cavity to make said body sterilizable in autoclave, characterized in that - said tip is made of a conductive material so as to form a negative pole and comprises electrically insulating means placed in at least a portion of said tip so as to form an insulated positive pole.
A vessel for removing hydrocarbons from catalyst, the vessel comprising: a catalyst inlet configured to receive a stream of spent catalyst particles, at least some of the spent catalyst particles comprising entrained hydrocarbons; a first section, the first section including a first grid and a second grid, wherein the first grid and the second grid include a plurality of openings to allow catalyst to pass there through, a first pipe secured to the first grid and supporting the second grid, and a second pipe secured to the first grid and supporting the second grid; an outlet configured to pass catalyst particles from the vessel; and a second stripping section, the second stripping section comprising a structured packing; wherein each pipe (130, 132) comprises three segments (140, 142, 144): a first segment secured to the first grid, an intermediate segment secured to the first segment and a second segment secured to the second grid; wherein the first segment has an upper leg that passes above the first grid and is secured to the intermediate segment and a lower leg that passes below the first grid, wherein a first end of the intermediate segment is secured to the upper leg of the first segment; and wherein the second segment has an upper leg that passes above the second grid and a lower leg that passes below the second grid and is secured to a second end of the intermediate segment below the second grid.. a catalyst inlet configured to receive a stream of spent catalyst particles, at least some of the spent catalyst particles comprising entrained hydrocarbons; a first section, the first section including a first grid and a second grid, wherein the first grid and the second grid include a plurality of openings to allow catalyst to pass there through, a first pipe secured to the first grid and supporting the second grid, and a second pipe secured to the first grid and supporting the second grid; an outlet configured to pass catalyst particles from the vessel; and a second stripping section, the second stripping section comprising a structured packing; wherein each pipe (130, 132) comprises three segments (140, 142, 144): a first segment secured to the first grid, an intermediate segment secured to the first segment and a second segment secured to the second grid; wherein the first segment has an upper leg that passes above the first grid and is secured to the intermediate segment and a lower leg that passes below the first grid, wherein a first end of the intermediate segment is secured to the upper leg of the first segment; and wherein the second segment has an upper leg that passes above the second grid and a lower leg that passes below the second grid and is secured to a second end of the intermediate segment below the second grid..
An air data probe comprising: a probe head, the probe head defining a longitudinal axis extending from a forward tip of the probe head to an aft end of the probe head, the probe head having an elliptical cross section orthogonal to the longitudinal axis; and an air data sensing port configured for use in measuring static air pressure and disposed in the probe head aft of the forward tip; wherein the air data probe further comprises a base plate configured to mount the air data probe to an exterior of an aircraft; wherein the probe head comprises a proximate side and a distal side with respect to the base plate, the distal side opposite the proximate side; wherein the elliptical cross section comprises a major axis and a minor axis perpendicular to the major axis; wherein the minor axis extends between the proximate side and the distal side; wherein a ratio of a length of the major axis to a length of the minor axis is greater than or equal to 1.1 and less than or equal to 1.7; and wherein the air data sensing port is disposed on the distal side of the probe head. a probe head, the probe head defining a longitudinal axis extending from a forward tip of the probe head to an aft end of the probe head, the probe head having an elliptical cross section orthogonal to the longitudinal axis; and an air data sensing port configured for use in measuring static air pressure and disposed in the probe head aft of the forward tip; wherein the air data probe further comprises a base plate configured to mount the air data probe to an exterior of an aircraft; wherein the probe head comprises a proximate side and a distal side with respect to the base plate, the distal side opposite the proximate side; wherein the elliptical cross section comprises a major axis and a minor axis perpendicular to the major axis; wherein the minor axis extends between the proximate side and the distal side; wherein a ratio of a length of the major axis to a length of the minor axis is greater than or equal to 1.1 and less than or equal to 1.7; and wherein the air data sensing port is disposed on the distal side of the probe head.
A mobile dust extraction device for filtering air, the mobile dust extraction device including: a filter housing having at least one air filter; an inlet housing fluidly connected to the filter housing; a fan assembly including a fan, a fan inlet and a fan outlet, the fan assembly fluidly connecting the filter housing to the fan outlet; a support frame for supporting the filter housing, inlet housing and the fan assembly; an emission sensor in fluid communication with the fan outlet, and differential pressure sensors located before and after the at least one air filter, a CPU to control and monitor the mobile dust extraction device, and characterised in that the mobile dust extraction device further includes a drive mechanism for propelling the mobile dust extraction device, wherein the drive mechanism is controlled by a wireless controller, and wherein the drive mechanism includes two continuous tracks; a hopper; an auger conveyor; and a discharge port, wherein in use the hopper funnels dust from the inlet housing and the filter housing to the auger conveyor and the auger conveyor conveys the dust to the discharge port; and wherein the CPU receives sensor readings from the emission sensor and the differential pressure sensors and communicates the sensor readings to the wireless controller; and wherein the sensor readings are displayed on a screen of the wireless controller. a filter housing having at least one air filter; an inlet housing fluidly connected to the filter housing; a fan assembly including a fan, a fan inlet and a fan outlet, the fan assembly fluidly connecting the filter housing to the fan outlet; a support frame for supporting the filter housing, inlet housing and the fan assembly; an emission sensor in fluid communication with the fan outlet, and differential pressure sensors located before and after the at least one air filter, a CPU to control and monitor the mobile dust extraction device, and characterised in that the mobile dust extraction device further includes a drive mechanism for propelling the mobile dust extraction device, wherein the drive mechanism is controlled by a wireless controller, and wherein the drive mechanism includes two continuous tracks; a hopper; an auger conveyor; and a discharge port, wherein in use the hopper funnels dust from the inlet housing and the filter housing to the auger conveyor and the auger conveyor conveys the dust to the discharge port; and wherein the CPU receives sensor readings from the emission sensor and the differential pressure sensors and communicates the sensor readings to the wireless controller; and wherein the sensor readings are displayed on a screen of the wireless controller.
Feeder head comprising a tubular distribution chamber, extending from at least one inlet opening to at least one outlet opening, and a feed gap which connects to the side of the distribution chamber, at least along part of the length of said distribution chamber arranged within the feed head, and extends from the distribution chamber to a surface of the feeder head in order to form an opening in the distribution chamber to said surface, the cross section of the feed gap varying along the length of the feed gap, characterised in that the inlet opening, the outlet opening and the distribution chamber are arranged in such a way that a coating material which exits the outlet opening has passed through the feeder head in a substantially U-shaped manner.
A multi-modal imaging system, comprising: a fixed gantry which supports a first imaging modality; a swivel gantry connected to the fixed gantry by at least three mounting points and supports a second imaging modality, the swivel gantry including: a swivel frame; at least three mounting points for mounting the fixed and swivel gantries together in an imaging configuration; wherein the at least three mounting points include at least one hinge which permits the swivel gantry to swivel about the hinge into an open configuration. a fixed gantry which supports a first imaging modality; a swivel gantry connected to the fixed gantry by at least three mounting points and supports a second imaging modality, the swivel gantry including: a swivel frame; at least three mounting points for mounting the fixed and swivel gantries together in an imaging configuration; wherein the at least three mounting points include at least one hinge which permits the swivel gantry to swivel about the hinge into an open configuration. a swivel frame; at least three mounting points for mounting the fixed and swivel gantries together in an imaging configuration; wherein the at least three mounting points include at least one hinge which permits the swivel gantry to swivel about the hinge into an open configuration.
A support for a mechanism for displaying jumping-type information for a timepiece movement and comprising a display member intended to be driven in rotation via a driving star wheel, the support being intended to be positioned between the display member and a frame element of the timepiece movement, characterized in that it comprises a base, having at least one first hole intended to receive a shaft for rotating the display member, and from which extend a first arm arranged in such a way as to be able to ensure the function of a jumper for the driving star wheel, and a second arm arranged in such a way as to be able to act on the driving star wheel to be able to rotate it in order to correct the information to be displayed in response to a predefined action of a user aiming to deform said second arm, said first and second arms (30, 32) being made of one part with said base.
A device comprising a processor comprising a named data network, NDN, forwarding daemon, NFD, module, and a plurality of accelerators (106, 110), wherein the device is configured to: identify an accelerator of the plurality of accelerators on which to configure an offloaded NFD module (108, 112) based on a configuration table indicating a current configuration of the plurality of accelerators; configure the offloaded NFD module on the identified accelerator to perform a first offloaded function of the NFD module; receive an interest packet comprising a workload request, the interest packet configured according to an NDN protocol; determine that the offloaded NFD module is configured to perform the workload request using the identified accelerator based on the configuration table; and offload, via an application programming interface, the workload request to the offloaded NFD module to perform the workload request using the identified accelerator. identify an accelerator of the plurality of accelerators on which to configure an offloaded NFD module (108, 112) based on a configuration table indicating a current configuration of the plurality of accelerators; configure the offloaded NFD module on the identified accelerator to perform a first offloaded function of the NFD module; receive an interest packet comprising a workload request, the interest packet configured according to an NDN protocol; determine that the offloaded NFD module is configured to perform the workload request using the identified accelerator based on the configuration table; and offload, via an application programming interface, the workload request to the offloaded NFD module to perform the workload request using the identified accelerator.
A signal receiving apparatus, wherein the receiving apparatus comprises: a signal receiving module, configured to detect a reference pulse signal in a received optical pulse signal, wherein the optical pulse signal comprises the reference pulse signal and a quantum optical pulse signal; and a synchronization clock module, configured to obtain a modulation pulse signal based on the reference pulse signal; wherein a first intensity modulator in the signal receiving module is configured to obtain, based on the modulation pulse signal, a first local-frequency optical pulse signal having same timing as the optical pulse signal, and the signal receiving module uses the first local-frequency optical pulse signal to interfere with the reference pulse signal and the quantum optical pulse signal separately, to obtain a raw key. a signal receiving module, configured to detect a reference pulse signal in a received optical pulse signal, wherein the optical pulse signal comprises the reference pulse signal and a quantum optical pulse signal; and a synchronization clock module, configured to obtain a modulation pulse signal based on the reference pulse signal; wherein a first intensity modulator in the signal receiving module is configured to obtain, based on the modulation pulse signal, a first local-frequency optical pulse signal having same timing as the optical pulse signal, and the signal receiving module uses the first local-frequency optical pulse signal to interfere with the reference pulse signal and the quantum optical pulse signal separately, to obtain a raw key.