mhurhangee/ep-ind-claims huggingface dataset:
A lesser trochanter securing device for use in artificial hip joint replacement, comprising: a basket protion(120, 220, 320, 420) adapted for completely or partially covering a lesser trochanter; and a buttress plating portion (110, 210, 310, 410) jointed to a lower edge of the basket portion and extending, in use, toward a femoral shaft such that the buttress plating portion can be secured and joined to the femoral shaft, characterized in that, wherein the lower edge of the basket portion (120, 220, 320, 420) has a triangular pyramid shape with first to third correspondence planes (122a to c, 222a to c), the first correspondence plane (122a, 222a) is configured to be disposed tin the direction of the femoral shaft with respect to an intertrochanteric line, the second correspondence plane (122b, 222b) is configured to be disposed in the direction of the femoral shaft to face the first correspondence plane, and the third correspondence plane (122c, 222c) is configured to be disposed toward a femoral neck. a basket protion(120, 220, 320, 420) adapted for completely or partially covering a lesser trochanter; and a buttress plating portion (110, 210, 310, 410) jointed to a lower edge of the basket portion and extending, in use, toward a femoral shaft such that the buttress plating portion can be secured and joined to the femoral shaft, characterized in that, wherein the lower edge of the basket portion (120, 220, 320, 420) has a triangular pyramid shape with first to third correspondence planes (122a to c, 222a to c), the first correspondence plane (122a, 222a) is configured to be disposed tin the direction of the femoral shaft with respect to an intertrochanteric line, the second correspondence plane (122b, 222b) is configured to be disposed in the direction of the femoral shaft to face the first correspondence plane, and the third correspondence plane (122c, 222c) is configured to be disposed toward a femoral neck.
A drug delivery device comprising: a drug container assembly containing a drug, and a plunger positioned within the drug container assembly, the drug container assembly having an outlet for dispensing the drug, wherein, in an initial position, the outlet is sealed; a drive mechanism comprising a first stored energy source operable to apply pressure on the plunger or the drug container assembly to pressurise the drug; and a first release mechanism operable to unseal the outlet after the drug has been pressurised, wherein the drive mechanism forms a first sub-assembly and the drug container assembly and first release mechanism form a second sub-assembly, and wherein: the device is configured such that connecting the first sub-assembly to the second sub-assembly stores energy within the first stored energy source, and/or the first stored energy source pressurises the drug as the first sub-assembly is connected to the second sub-assembly. a drug container assembly containing a drug, and a plunger positioned within the drug container assembly, the drug container assembly having an outlet for dispensing the drug, wherein, in an initial position, the outlet is sealed; a drive mechanism comprising a first stored energy source operable to apply pressure on the plunger or the drug container assembly to pressurise the drug; and a first release mechanism operable to unseal the outlet after the drug has been pressurised, wherein the drive mechanism forms a first sub-assembly and the drug container assembly and first release mechanism form a second sub-assembly, and wherein: the device is configured such that connecting the first sub-assembly to the second sub-assembly stores energy within the first stored energy source, and/or the first stored energy source pressurises the drug as the first sub-assembly is connected to the second sub-assembly. the device is configured such that connecting the first sub-assembly to the second sub-assembly stores energy within the first stored energy source, and/or the first stored energy source pressurises the drug as the first sub-assembly is connected to the second sub-assembly.
A clamp assembly for an external fixation system for stabilizing fractured bones or securing bones after corrective surgery, comprising: a first jaw; a second jaw having an inner surface facing the first jaw, the first and second jaws together forming a passage for receiving a first fixation element of the external fixation system; a first link attached to the first jaw; and a second link attached to the second jaw, the first and second links (112, 114) being: pivotable between a first position and a second position, the first and second links (112, 114) being configured in a manner that the first and second jaws (108, 110) are open when the first and second links (112, 114) are disposed in the first position and are closed when the first and second links (112, 114) are in the second position, the links (112, 114) being configured to control the relative motion of the first and second jaws (108, 110), the links (112, 114) being arranged such that, when the first and second jaws are closed, the first and second links (112, 114) resist separation of the jaws; the clamp assembly further comprising a biasing element arranged so as to bias the clamp open when the first and second links (112,114) are disposed in the first position. a first jaw; a second jaw having an inner surface facing the first jaw, the first and second jaws together forming a passage for receiving a first fixation element of the external fixation system; a first link attached to the first jaw; and a second link attached to the second jaw, the first and second links (112, 114) being: pivotable between a first position and a second position, the first and second links (112, 114) being configured in a manner that the first and second jaws (108, 110) are open when the first and second links (112, 114) are disposed in the first position and are closed when the first and second links (112, 114) are in the second position, the links (112, 114) being configured to control the relative motion of the first and second jaws (108, 110), the links (112, 114) being arranged such that, when the first and second jaws are closed, the first and second links (112, 114) resist separation of the jaws; pivotable between a first position and a second position, the first and second links (112, 114) being configured in a manner that the first and second jaws (108, 110) are open when the first and second links (112, 114) are disposed in the first position and are closed when the first and second links (112, 114) are in the second position, the links (112, 114) being configured to control the relative motion of the first and second jaws (108, 110), the links (112, 114) being arranged such that, when the first and second jaws are closed, the first and second links (112, 114) resist separation of the jaws;
Sensor arrangement having a sensor element for measuring at least one physical and/or chemical fluid property in a turbomachine having a turbine (16, 17, 18), in particular a high-pressure turbine, in which a rotor stage and a stator stage are arranged, characterized in that the sensor element captures the at least one fluid property in a non-contact seal, in particular a labyrinth seal, between the rotor stage and the stator stage, wherein the sensor element is in contact with the fluid flow along the flow path in the non-contact seal during operation, wherein the sensor element is arranged at the start, in the middle or at the end of the flow path through the non-contact seal, wherein the seal with the sensor element is in the vicinity of the gas path in order to provide sealing against the ingress of hot gas and possibly to detect an ingress of hot gas.
Damping element comprising a head part, neck part and foot part of concrete adjoining one another in the longitudinal direction, wherein the cross section of the neck part transversely to the longitudinal direction is smaller than the cross section of the head part transversely to the longitudinal direction and is smaller than the cross section of the foot part transversely to the longitudinal direction, whereby the foot part has a tapered periphery, characterized in that the foot part has a recess (15, 15', 15") directed transversely to the longitudinal direction over at least a portion of said tapered periphery.
A method for receiving control information about a coordinated multi-point, CoMP, set by a user equipment from a serving transmission point in a carrier aggregation based wireless communication system, the CoMP set including a first cell, PCell, and a second cell, SCell, the method comprising: receiving information indicating a control information size through higher layer signaling; characterized in that, the method comprises: monitoring a plurality of control channel candidates for each cell of the CoMP set on the first cell of the CoMP set and detecting the control information, wherein, when the control information corresponds to a transmission mode, TM, dedicated downlink control information, DCI, format, the plurality of control channel candidates for each cell of the CoMP set are determined to have a same control information size as the control information size received through the higher layer signaling, and wherein, when the control information corresponds to a TM common DCI format, the plurality of control channel candidates for each cell of the CoMP set are determined to have a same DCI format size as a TM common DCI format size configured in the first cell. receiving information indicating a control information size through higher layer signaling; characterized in that, the method comprises: monitoring a plurality of control channel candidates for each cell of the CoMP set on the first cell of the CoMP set and detecting the control information, wherein, when the control information corresponds to a transmission mode, TM, dedicated downlink control information, DCI, format, the plurality of control channel candidates for each cell of the CoMP set are determined to have a same control information size as the control information size received through the higher layer signaling, and wherein, when the control information corresponds to a TM common DCI format, the plurality of control channel candidates for each cell of the CoMP set are determined to have a same DCI format size as a TM common DCI format size configured in the first cell. monitoring a plurality of control channel candidates for each cell of the CoMP set on the first cell of the CoMP set and detecting the control information, wherein, when the control information corresponds to a transmission mode, TM, dedicated downlink control information, DCI, format, the plurality of control channel candidates for each cell of the CoMP set are determined to have a same control information size as the control information size received through the higher layer signaling, and wherein, when the control information corresponds to a TM common DCI format, the plurality of control channel candidates for each cell of the CoMP set are determined to have a same DCI format size as a TM common DCI format size configured in the first cell.
A multi-node communication network, comprising: a plurality of nodes forming a cluster, the nodes including normal value nodes, a cluster head node, and a high value node, wherein each of the plurality of nodes includes a communication interface and a controller, wherein the high value node is defined as high value relative to the normal value nodes during mission data information loading fill; in which network: the high value node is configured to locate the cluster head node, register the high value node's membership to the cluster head node, and send position-location information, PLI, to the cluster head node during registration; wherein, upon receipt of a PLI request, which is not a time-critical or high-precision PLI request, each of the normal value nodes is configured to send current PLI to the cluster head node; wherein, upon receipt of the PLI request, which is not a time-critical or high-precision PLI request, the high value node remains silent; and wherein each of the cluster head node, the normal value nodes, and the high value node are configured to send current PLI upon receipt of a time-critical or high-precision PLI request. a plurality of nodes forming a cluster, the nodes including normal value nodes, a cluster head node, and a high value node, wherein each of the plurality of nodes includes a communication interface and a controller, wherein the high value node is defined as high value relative to the normal value nodes during mission data information loading fill; in which network: the high value node is configured to locate the cluster head node, register the high value node's membership to the cluster head node, and send position-location information, PLI, to the cluster head node during registration; wherein, upon receipt of a PLI request, which is not a time-critical or high-precision PLI request, each of the normal value nodes is configured to send current PLI to the cluster head node; wherein, upon receipt of the PLI request, which is not a time-critical or high-precision PLI request, the high value node remains silent; and wherein each of the cluster head node, the normal value nodes, and the high value node are configured to send current PLI upon receipt of a time-critical or high-precision PLI request.
Magnetic field sensor having a circular cross section, in particular in the form of a rod, with a device housing having a sensor element housing part and a connection element housing part, wherein the sensor element housing part is arranged at a first sensor end of the magnetic field sensor and wherein the sensor element housing part has, at an axial distance from the first sensor end, an encircling radial projection with an annular groove open to the first sensor end, characterized in that the radial projection has, at an axial distance from a groove base of the annular groove, a recess which at least partially extends over the groove cross section of the annular groove in the radial direction, as a result of which, in the event of attempted manipulation to open the device housing by separation in the annular groove in order to reach the interior of the magnetic field sensor, the recess is also cut and this produces separation edges in the sensor element housing part which are identifiable from the outside and remain uncovered and visible after the sensor element housing part has been put together again after having been separated, and in that an inside diameter (DiS) of the sensor element housing part is at least as large as an inside diameter (DiR) of the annular groove.
A mobile device comprising: an electrodynamic haptic feedback element (104,128), a controller (112, 122) having a sense input connected to at least one of the terminals of the electrodynamic feedback element and comprising an equalizer coupled to the sense input, wherein the controller is configured to sense by the sense input a signal induced on the at least one terminal of the electrodynamic haptic feedback element in response to an external vibration source, and the controller is further configured to apply equalization to the induced signal such that the effective passband of the electrodynamic haptic feedback element is increased, and to detect at least one of speech and noise in the induced signal. an electrodynamic haptic feedback element (104,128), a controller (112, 122) having a sense input connected to at least one of the terminals of the electrodynamic feedback element and comprising an equalizer coupled to the sense input, wherein the controller is configured to sense by the sense input a signal induced on the at least one terminal of the electrodynamic haptic feedback element in response to an external vibration source, and the controller is further configured to apply equalization to the induced signal such that the effective passband of the electrodynamic haptic feedback element is increased, and to detect at least one of speech and noise in the induced signal.
A mass spectrometer comprising: a. an ion source for generating ions from a sample in a high pressure region; b. a first vacuum chamber comprising an inlet aperture for passing the ions from the high-pressure region into the vacuum chamber, and an exit aperture for passing ions from the vacuum chamber; c. at least one ion guide between the inlet and exit apertures, the at least one ion guide having an entrance end and an exit end, the at least one ion guide having a plurality of electrodes arranged around a central axis defining an ion channel, each of the plurality of electrodes being tapered, wherein each of the plurality of tapered electrodes has a planar surface facing the interior of the at least one ion guide, and the surface gradually being narrowed and tilted inward to provide a smaller inscribed radius at the exit, wherein adjacent electrodes are separated by a gap, the gap having a width G at said planar surface; and d. a power supply for providing an RF voltage to the at least one ion guide; characterized in that: the width G is constant along the length of the ion guide and a thickness T of the electrodes gradually increases towards the exit end of the ion guide, wherein the thickness T is defined by the thickness of the respectively adjacent electrodes in the region where the width G is constant along the direction approximately perpendicular to the central axis. a. an ion source for generating ions from a sample in a high pressure region; b. a first vacuum chamber comprising an inlet aperture for passing the ions from the high-pressure region into the vacuum chamber, and an exit aperture for passing ions from the vacuum chamber; c. at least one ion guide between the inlet and exit apertures, the at least one ion guide having an entrance end and an exit end, the at least one ion guide having a plurality of electrodes arranged around a central axis defining an ion channel, each of the plurality of electrodes being tapered, wherein each of the plurality of tapered electrodes has a planar surface facing the interior of the at least one ion guide, and the surface gradually being narrowed and tilted inward to provide a smaller inscribed radius at the exit, wherein adjacent electrodes are separated by a gap, the gap having a width G at said planar surface; and d. a power supply for providing an RF voltage to the at least one ion guide;
A network transmission interface, comprising within an egress data path: • a physical coding sublayer, PCS, operating in a constant bitrate domain for transmitting data frames on a network link; • a timestamp unit configured to insert timestamps in payloads of the frames; • a transmission media access control unit, MAC, located at a frontier between the constant bitrate domain and a variable bitrate domain, configured to receive the frames at a variable bitrate, encapsulate the frames, and provide the encapsulated frames at a constant bitrate; • a MAC layer security unit located downstream the timestamp unit, configured to at least sign the payloads and expand each frame with a security tag and an integrity check value, ICV; wherein the timestamp unit and the MAC layer security unit both operate in the constant bitrate domain. • a physical coding sublayer, PCS, operating in a constant bitrate domain for transmitting data frames on a network link; • a timestamp unit configured to insert timestamps in payloads of the frames; • a transmission media access control unit, MAC, located at a frontier between the constant bitrate domain and a variable bitrate domain, configured to receive the frames at a variable bitrate, encapsulate the frames, and provide the encapsulated frames at a constant bitrate; • a MAC layer security unit located downstream the timestamp unit, configured to at least sign the payloads and expand each frame with a security tag and an integrity check value, ICV;
A downhole electrical energy harvesting system for use in a well installation having metallic structure comprising at least two runs of metallic elongate members carrying electrical current, the harvesting system comprising: an energy harvesting module comprising an electrical circuit connected between spaced contacts to harvest energy from a potential difference between the spaced contacts, wherein a first of the spaced contacts is made to one of the at least two runs of metallic elongate members at a first location and a second of the spaced contacts is made to another of the at least two runs of metallic elongate members at a second location and the potential difference is caused by the current flowing in the at least two runs of elongate members and, at least in part, the impedance of the at least two runs of elongate members, wherein a first of the connections is made to a first run of metallic elongate members which is part of the metallic structure and a second of the connections is made to a second, distinct, run of metallic elongate members which is part of the metallic structure. an energy harvesting module comprising an electrical circuit connected between spaced contacts to harvest energy from a potential difference between the spaced contacts, wherein a first of the spaced contacts is made to one of the at least two runs of metallic elongate members at a first location and a second of the spaced contacts is made to another of the at least two runs of metallic elongate members at a second location and the potential difference is caused by the current flowing in the at least two runs of elongate members and, at least in part, the impedance of the at least two runs of elongate members, wherein a first of the connections is made to a first run of metallic elongate members which is part of the metallic structure and a second of the connections is made to a second, distinct, run of metallic elongate members which is part of the metallic structure.