mhurhangee/patent-ind-claim-en huggingface dataset:
Starting device for an internal combustion engine with a pinion , a hollow shaft and a pinion shaft which is inserted in the hollow shaft , which transmits torque to the hollow shaft and which is longitudinally displaceable, which is supported resiliently against the hollow shaft against its direction of insertion into the hollow shaft and is limited in its displacement path opposite to the direction of insertion into the hollow shaft by means of a stop arrangement , which comprises a stop element which is engaged by the hollow shaft in a radially elastically expandable manner and which is received in an annular groove of the pinion shaft , wherein the stop element is surrounded by the hollow shaft in the stop region with a radial spacing from the hollow shaft securing its radial engagement position towards the pinion shaft , characterized in that the hollow shaft comprises an annular space which surrounds the stop element which, starting from its region corresponding to the stop position, is radially widened in the insertion direction of the pinion shaft .
Prevention system against motorcar-theft of a motorcar with manual transmission, for installation subsequently to the production of the motorcar, which system is adapted to adjust to the operation of the engine of the motorcar and to be active automatically, said system comprising an ignition switch supplied by a battery of the motorcar and a central electronic unit provided with a control processor as well as a drive unit with an electric motor controlled by the central electronic unit , wherein said drive unit comprises an electric motor , a transmission , a shaft of trapezoidal thread and a bowden-cable mover adapted to move between an open position (X) and closed position (Y) of the drive unit , and the system further comprises a hydraulic pressure-reducing unit operated by the drive unit for deactivating the clutch, and interlocking units for interlocking the lock of the engine compartment, the hydraulics, the gear-box and optionally the lock of the luggage compartment, which are connected to the drive unit via the bowden-cable mover and interlocking-control bowden-cables , characterized in that the drive unit , which is automatically switched on when the engine of the motorcar is stopped, maintains an interlocked protective state even when the battery is completely depleted, said drive unit is associated with a control unit for controlling the switch-on conditions of the protection, said switch-on conditions including the switched-off state of the ignition switch , a signal of a charge sensor on a charge-free state of the battery , and a signal of a vibration sensor on a vibration-free state of the motorcar, wherein the interlocking unit of the gear-box is arranged near the linkage of the gear-box, and the pressure-reducing unit is provided with a means for limiting the pressure generated behind the piston of the clutch cylinder.
Method for processing a message (MOPT) received from a transmitting device (D1), intended for a public identity (IMPU2) managed by a multimedia IP core network (CN2) and shared by a plurality of devices (D2-1, ..., D2-N), said message (MOPT) being a so-called main message of discovery of the capacities and of a state of one said device sharing the public identity, said method being intended to be implemented by an application server of the core network, triggered upstream of a replication function (FORK) implemented by a registration server of the core network managing the public identity, said replication function (FORK) being adapted to replicate messages intended for the public identity and to transmit the replicated messages to said plurality of devices sharing the public identity, said processing method comprising, on reception (E10) of the main discovery message (MOPT), if several devices out of said plurality of devices sharing the public identity are registered with the core network (E30) : - a step of sending (E50), to at least one device (D2-1, ..., D2-R) of said plurality of devices registered with the core network, of a so-called secondary message (MOPT1, MOPT2, ..., MOPTR) of discovery of the capacities and of a state of this device; - a step of producing (E100) of a response (RESP) to the main discovery message (MOPT) from at least one response (RESP1, RESP2, ..., RESPR) from a registered device (D2-1, ..., D2-R) to a secondary discovery message received in a predetermined time period, this response being representative of a state and of the capacities of this device; and - a step of sending (E110), to the transmitting device (D1), of the response (RESP) generated to the main discovery message. - a step of sending (E50), to at least one device (D2-1, ..., D2-R) of said plurality of devices registered with the core network, of a so-called secondary message (MOPT1, MOPT2, ..., MOPTR) of discovery of the capacities and of a state of this device; - a step of producing (E100) of a response (RESP) to the main discovery message (MOPT) from at least one response (RESP1, RESP2, ..., RESPR) from a registered device (D2-1, ..., D2-R) to a secondary discovery message received in a predetermined time period, this response being representative of a state and of the capacities of this device; and - a step of sending (E110), to the transmitting device (D1), of the response (RESP) generated to the main discovery message.
Storage device for storing at least one splice and receiving an excess length of an optical fibre cable (30-32) with at least two elements fixed relative to each other, wherein a first one of said elements is a first container with a storage means for the splice in an interior space of said first container , a second of the elements is a receiving device for the excess cable length, the interior space of the first element is separated from the second element by a partition wall , and the partition wall has feed-through devices for feeding through fibre-optic cables (30-32), which feed-through devices include plug-in connection locations, receptacles therefor and/or predetermined break-out locations therefor, characterised in that the receiving device is a second container , the first container is closable independently of the second container and the second container is accessible in the closed state of the first container . at least two elements fixed relative to each other, wherein a first one of said elements is a first container with a storage means for the splice in an interior space of said first container , a second of the elements is a receiving device for the excess cable length, the interior space of the first element is separated from the second element by a partition wall , and the partition wall has feed-through devices for feeding through fibre-optic cables (30-32), which feed-through devices include plug-in connection locations, receptacles therefor and/or predetermined break-out locations therefor, characterised in that the receiving device is a second container , the first container is closable independently of the second container and the second container is accessible in the closed state of the first container .
Tongue rail for use in a rail switch, comprising a rail head , a rail web and a rail foot , wherein the tongue rail comprises a first longitudinal section intended for contact with a stock rail and a second longitudinal section lying outside the contact area, wherein the tongue rail comprises a cross-sectional basic profile in the second longitudinal section, the basic profile preferably being processed in the first longitudinal section to form a continuous width adjustment, in particular in the rail head , wherein in the second longitudinal section in a cross-section through the center of the rail head a vertically extending central axis is defined, and a first section of the rail foot is arranged on a first side of the central axis and a second section of the rail foot is arranged on a second side of the central axis opposite the first side, wherein the width of the first section of the rail foot is larger in cross section than the width of the second section of the rail foot , characterized in that the cross section of the tongue rail at at least one point along the longitudinal extension of the rail has a ratio between the vertical second moment of area I y and the horizontal second moment of area I x of greater than 0.7 and the ratio between the width of the first section of the rail foot and the height of the tongue rail at at least one point along the longitudinal extension of the tongue rail , preferably in the first and/or in the second longitudinal section, particularly preferably at every point along the longitudinal extension of the tongue rail , is at least 0.80.
A method of calibrating an ultrasound probe having a coupling element for engaging the surface of an object to be inspected, in which the ultrasound probe and a calibration artefact are provided on a positioning apparatus having at least one axis (D, E) about which the relative orientation of the ultrasound probe and calibration artefact can be changed, the method comprising: i) for a plurality of different relative orientations between the ultrasound probe and the calibration artefact about the at least one axis, measuring the signal received by the ultrasound probe; and ii) from said measurements, determining at least one calibration parameter which is indicative of at least one axis of optimum signal of the ultrasound probe, and recording the at least one calibration parameter for subsequent use. i) for a plurality of different relative orientations between the ultrasound probe and the calibration artefact about the at least one axis, measuring the signal received by the ultrasound probe; and ii) from said measurements, determining at least one calibration parameter which is indicative of at least one axis of optimum signal of the ultrasound probe, and recording the at least one calibration parameter for subsequent use.
A system comprising: a compressor for a refrigeration system; an ambient temperature sensor configured to generate ambient temperature data corresponding to an outdoor ambient temperature; a compressor temperature sensor configured to generate compressor temperature data corresponding to a compressor temperature; and a control module , characterised in that the control module is configured to: receive the ambient temperature data and the compressor temperature data, determine whether the outdoor ambient temperature is rising faster than the compressor temperature, determine whether the outdoor ambient temperature is greater than the compressor temperature by more than a predetermined threshold for more than a predetermined time period, and, in response to the outdoor ambient temperature rising faster than the compressor temperature and the outdoor ambient temperature being greater than the compressor temperature by more than the predetermined threshold for more than the predetermined time period, operate the compressor according to at least one cycle including a first time period during which the compressor is on and a second time period during which the compressor is off. a compressor for a refrigeration system; an ambient temperature sensor configured to generate ambient temperature data corresponding to an outdoor ambient temperature; a compressor temperature sensor configured to generate compressor temperature data corresponding to a compressor temperature; and a control module , characterised in that the control module is configured to: receive the ambient temperature data and the compressor temperature data, determine whether the outdoor ambient temperature is rising faster than the compressor temperature, determine whether the outdoor ambient temperature is greater than the compressor temperature by more than a predetermined threshold for more than a predetermined time period, and, in response to the outdoor ambient temperature rising faster than the compressor temperature and the outdoor ambient temperature being greater than the compressor temperature by more than the predetermined threshold for more than the predetermined time period, operate the compressor according to at least one cycle including a first time period during which the compressor is on and a second time period during which the compressor is off. receive the ambient temperature data and the compressor temperature data, determine whether the outdoor ambient temperature is rising faster than the compressor temperature, determine whether the outdoor ambient temperature is greater than the compressor temperature by more than a predetermined threshold for more than a predetermined time period, and, in response to the outdoor ambient temperature rising faster than the compressor temperature and the outdoor ambient temperature being greater than the compressor temperature by more than the predetermined threshold for more than the predetermined time period, operate the compressor according to at least one cycle including a first time period during which the compressor is on and a second time period during which the compressor is off.
A system for enabling atlas registration in medical imaging, said atlas registration comprising matching a medical atlas to a medical image , the system comprising: - a first input interface for accessing atlas data defining the medical atlas; - a second input interface for accessing image data of the medical image; - a processor configured to: - execute a Reinforcement Learning algorithm to learn a model for matching the medical atlas to the medical image, wherein said learning is on the basis of a reward function quantifying a degree of match between the medical atlas and the medical image; - determine a state space for the Reinforcement Learning algorithm on the basis of a set of features extracted from i) the atlas data and ii) the image data; and - determine an action space for the Reinforcement Learning algorithm on the basis of a predefined set of transformation actions which are available to be applied to the medical atlas, wherein the action space is structured into different levels, wherein each of the different levels comprises a subset of the transformation actions, and wherein the different levels form a hierarchy of transformation actions in which selection of a sequence of transformation actions by the Reinforcement Learning algorithm is restricted to a downward progression in the hierarchy. - a first input interface for accessing atlas data defining the medical atlas; - a second input interface for accessing image data of the medical image; - a processor configured to: - execute a Reinforcement Learning algorithm to learn a model for matching the medical atlas to the medical image, wherein said learning is on the basis of a reward function quantifying a degree of match between the medical atlas and the medical image; - determine a state space for the Reinforcement Learning algorithm on the basis of a set of features extracted from i) the atlas data and ii) the image data; and - determine an action space for the Reinforcement Learning algorithm on the basis of a predefined set of transformation actions which are available to be applied to the medical atlas, wherein the action space is structured into different levels, - execute a Reinforcement Learning algorithm to learn a model for matching the medical atlas to the medical image, wherein said learning is on the basis of a reward function quantifying a degree of match between the medical atlas and the medical image; - determine a state space for the Reinforcement Learning algorithm on the basis of a set of features extracted from i) the atlas data and ii) the image data; and - determine an action space for the Reinforcement Learning algorithm on the basis of a predefined set of transformation actions which are available to be applied to the medical atlas, wherein the action space is structured into different levels,
A light detection and ranging, LIDAR, system comprising: a first platform ; a second platform within a predefined distance to the first platform; a LIDAR sensor mounted on the first platform and configured to scan an environment of the LIDAR system; a probe mounted to the first platform; a plurality of probes mounted to the second platform; and a first controller electrically coupled to the LIDAR sensor and the probe of the first platform, wherein the first controller receives data from the LIDAR sensor and causes the probe of the first platform to emit a radio frequency, RF, signal, having a frequency in the extremely high frequency, EHF, band, that is modulated to indicate data indicative of a scan of the environment of the LIDAR system 400 by the LIDAR sensor; a signal conditioner that selects, based on an orientation of the first platform relative to the second platform, one of the plurality of probes of the second platform to use for receiving the emitted RF signal having a frequency in the EHF band. a first platform ; a second platform within a predefined distance to the first platform; a LIDAR sensor mounted on the first platform and configured to scan an environment of the LIDAR system; a probe mounted to the first platform; a plurality of probes mounted to the second platform; and a first controller electrically coupled to the LIDAR sensor and the probe of the first platform, wherein the first controller receives data from the LIDAR sensor and causes the probe of the first platform to emit a radio frequency, RF, signal, having a frequency in the extremely high frequency, EHF, band, that is modulated to indicate data indicative of a scan of the environment of the LIDAR system 400 by the LIDAR sensor; a signal conditioner that selects, based on an orientation of the first platform relative to the second platform, one of the plurality of probes of the second platform to use for receiving the emitted RF signal having a frequency in the EHF band.
Method for managing electrical energy of an electrical energy generation installation , the installation comprising at least a first renewable power plant for energy generation and a second renewable power plant for energy generation, each power plant comprising at least one renewable energy source (1.RES, 2.RES), and at least one energy storage system (1.ESS, 2.ESS) associated with the corresponding renewable energy source (1.RES, 2.RES), which are at least partially charged or discharged when they are actuated, the method comprising an executing cycle (C) in which a respective actuation setpoint (1.9, 2.9) is generated for each storage system (1.ESS, 2.ESS), said actuation setpoints (1.9, 2.9) defining the actuation upon said storage systems (1.ESS, 2.ESS), and in which said generated actuation setpoints (1.9, 2.9) are applied upon said storage systems (1.ESS, 2.ESS), the executing cycle (C) comprising an actuation step (S1) in which a respective energy generation setpoint (1.0, 2.0) is received for each power plant , the energy generation of each renewable energy source (1.RES, 2.RES) is measured, each generation setpoint (1.0, 2.0) is compared with the corresponding measured generation, a first differential between the generation and the generation setpoint (1.0) of the first power plant and a second differential between the generation and the generation setpoint (2.0) of the second power plant being obtained, characterized in that, in the method, both differentials are compared with each other, and actuation setpoints (1.9, 2.9) are generated based on the result of said comparison.
A surgical suturing device, comprising: a shaft ; a forked guide tip coupled to the shaft and having a plurality of legs , wherein each of the plurality of legs comprises: a proximal end having a substantially concave shape with respect to a longitudinal axis of the shaft such that the forked legs are curved in a concave fashion with respect to the longitudinal axis passing over the forked legs ; an anatomical variation including an arch sized and shaped to fit on a papillary muscle; and a distal end ; a plurality of needles , each of the plurality of needles corresponding to a different one of the plurality of legs ; characterized by a pledget holder located between the proximal end and the anatomical variation , the pledget holder holding a pledget ; and an actuator configured to move the needles out of the proximal ends of the legs , through the pledget held in the pledget holder , and then through a tissue bite area defined by the arch of the anatomical variation . a shaft ; a forked guide tip coupled to the shaft and having a plurality of legs , wherein each of the plurality of legs comprises: a proximal end having a substantially concave shape with respect to a longitudinal axis of the shaft such that the forked legs are curved in a concave fashion with respect to the longitudinal axis passing over the forked legs ; an anatomical variation including an arch sized and shaped to fit on a papillary muscle; and a distal end ; a proximal end having a substantially concave shape with respect to a longitudinal axis of the shaft such that the forked legs are curved in a concave fashion with respect to the longitudinal axis passing over the forked legs ; an anatomical variation including an arch sized and shaped to fit on a papillary muscle; and a distal end ; a plurality of needles , each of the plurality of needles corresponding to a different one of the plurality of legs ; characterized by a pledget holder located between the proximal end and the anatomical variation , the pledget holder holding a pledget ; and an actuator configured to move the needles out of the proximal ends of the legs , through the pledget held in the pledget holder , and then through a tissue bite area defined by the arch of the anatomical variation .
A method for sharpening a blade , in particular a moulding knife for a cutter head used in a processing machine, that comprises a cutting surface , a spine opposite said cutting surface and a main cutting edge arranged on an outer end (11.1) of the cutting surface , wherein a free surface extending at a sharpening angle (β) to the cutting surface extends from the main cutting edge to the spine , and a stop surface (15.1, 15.2) extending in an axial direction (A) is configured in the spine in which the cutting surface is ground down by a first amount (Δ 1 ), characterised in that the stop surface (15.1, 15.2) is ground down by a second amount (Δ 2 ).