mhurhangee/ep-ind-claims huggingface dataset:
Cross member assembly, in particular a floor cross member and/or a footwell cross member assembly, on a vehicle body, with a cross member which extends in the transverse direction of the vehicle and on which at least one longitudinal member, which can be subjected to force, in particular to force in a crash situation, and extends substantially in the longitudinal direction of the vehicle, is supported in a defined longitudinalmember support region, and with at least one support component (9, 10, 11) of the vehicle body, said support component extending away from the cross member opposite the longitudinal member which can be subjected to force, and being connected in a support-component connecting region, characterized in that a defined, force-conducting load path profile of raised or recessed design with respect to an adjacent surface region of the cross member is provided on the cross member, said load path profile extending from the longitudinal-member support region in the direction of or as far as at least one support component (9, 10, 11) and forming a defined cross-member-side load path region.
A mechanical seal comprising an elastomeric member, a spring biasing means, a longitudinally non-floating first member, a longitudinally floating second member and a longitudinally floating seal face; said elastomeric member being in sealing engagement with said seal face and said first and second members, and said spring biasing means being longitudinally positioned between said seal face and said second member, one of said first member and second members being provided with at least one longitudinally protruding male portion and the other of said first and second and members being provided with corresponding a female portion into which said male portion is engageable so as to restrict the relative longitudinal movement between said members, characterised in that the male and female portions are both of T-profile whereby the engagement between a male portion and its corresponding female portion is positive whereby the seal remains assembled in its free state.
A mobile communications network for communicating a sequence of data blocks to mobile communications devices via a wireless access interface, the mobile communications network including a plurality of base stations (2, 22, 122) disposed throughout the network and arranged in operation to transmit to the mobile communications devices a broadcast signal providing the sequence of data blocks in a sequence of transmission frames, each data block of the sequence being transmitted by each of the base stations contemporaneously for each of the sequence of transmission frames, and one or more relay nodes arranged in operation to receive the broadcast signal transmitted by one of the base stations and to retransmit the broadcast signal, the broadcast signal being re-transmitted as the sequence of data blocks on the same frequency as the broadcast signal transmitted by the base station, so that one or more of the mobile communications devices can receive the broadcast signal and recover the sequence of data blocks from one or both of the broadcast signal transmitted by the base station or the broadcast signal transmitted by the relay node, wherein the relay node is arranged to receive each of the sequence of data blocks transmitted by one or more of the base stations and to re-transmit the sequence of data blocks as the broadcast signal, the transmission by the relay node being at the same time and the same frequency as the transmission by the one or more base stations from which the sequence of data blocks was received by the relay node and the transmission of the sequence of the data blocks by the relay node being displaced by one or more data blocks behind the transmission of the sequence of data blocks by the base station from which the sequence of data blocks was received, the sequence of data blocks transmitted by the one or more base stations are transmitted in one or more sub-frames of each of a sequence of frames, the relay node is configured to transmit the sequence of data blocks displaced in time with respect to the transmission of the sequence of data blocks after one transmission frame or sub-frame so that each of the data blocks received in a first transmission frame or sub-frame is transmitted in a second following frame or sub-frame, the transmission by the relay node of a first data block in the sequence of data blocks being at the same time and the same frequency as the transmission of a second data block in the sequence of data blocks by the one or more base stations from which the sequence of data blocks was received by the relay node, and the first data block occurs earlier in the sequence than the second data block.
A DIN rail wiring duct having a top, a bottom, and a side, the DIN rail wiring duct comprising: a base having a top wall, a bottom wall, a sidewall, and a divider wall, the top wall, the bottom wall, the sidewall, and the divider wall defining a channel and a channel opening for accessing the channel; and a cover for the channel opening, the cover having a top wall and a sidewall substantially perpendicular to the top wall, wherein the top wall of the cover is removably connected to the top wall of the base and the sidewall of the cover is rotatably connected to the sidewall of the base such that the channels are accessible through the channel openings from the top and the side of the DIN rail wiring duct when the cover is rotated from a closed position to an open position, wherein the top wall of the base includes a plurality of top wall fingers, each top wall finger including a latch arm, and wherein the top wall of the cover includes a latch pocket for receiving the latch arm. a base having a top wall, a bottom wall, a sidewall, and a divider wall, the top wall, the bottom wall, the sidewall, and the divider wall defining a channel and a channel opening for accessing the channel; and a cover for the channel opening, the cover having a top wall and a sidewall substantially perpendicular to the top wall, wherein the top wall of the cover is removably connected to the top wall of the base and the sidewall of the cover is rotatably connected to the sidewall of the base such that the channels are accessible through the channel openings from the top and the side of the DIN rail wiring duct when the cover is rotated from a closed position to an open position, wherein the top wall of the base includes a plurality of top wall fingers, each top wall finger including a latch arm, and wherein the top wall of the cover includes a latch pocket for receiving the latch arm.
A dot pattern reading device comprising reading means for reading a dot pattern as image data and analysis means for analyzing the image data and decoding information defined by the dot pattern, the dot pattern comprising: a plurality of reference points printed and arranged in a rectangular area to define a block; a plurality of start points (11, 12, 13, 14) virtually arranged and having certain positional relationships with respect to the reference points; and a plurality of information dots printed and arranged to define information based on at least one of distances and directions of the respective information dots from the respective start points (11, 12, 13, 14), characterized in that a first information dot at a predetermined position among the information dots includes a direction dot defining the direction of the block by a direction from a first start point (11, 12, 13, 14) at a predetermined position among the start points (11, 12, 13, 14) to the first information dot at the predetermined position. a plurality of reference points printed and arranged in a rectangular area to define a block; a plurality of start points (11, 12, 13, 14) virtually arranged and having certain positional relationships with respect to the reference points; and a plurality of information dots printed and arranged to define information based on at least one of distances and directions of the respective information dots from the respective start points (11, 12, 13, 14), characterized in that a first information dot at a predetermined position among the information dots includes a direction dot defining the direction of the block by a direction from a first start point (11, 12, 13, 14) at a predetermined position among the start points (11, 12, 13, 14) to the first information dot at the predetermined position.
A computer-implemented method for detecting tampering of an energy meter, comprising: in a first phase: gathering magnetic field sample data, an average magnetic field strength, a minimum magnetic field strength, and a maximum magnetic field strength from at least one magnetic field condition applied to an energy meter by a magnetic sensor that measures a magnetic field in at least one of a plurality of directions; using learning coefficients calculated from the magnetic field sample data and the average magnetic field strength, the minimum magnetic field strength, and the maximum magnetic field strength to classify with a classifier, magnet tampering conditions with respect to the energy meter; and in a second phase: identifying a magnet tamper event with respect to the energy meter when the magnet tampering condition classified by the classifier is greater than a magnetic detection threshold. in a first phase: gathering magnetic field sample data, an average magnetic field strength, a minimum magnetic field strength, and a maximum magnetic field strength from at least one magnetic field condition applied to an energy meter by a magnetic sensor that measures a magnetic field in at least one of a plurality of directions; using learning coefficients calculated from the magnetic field sample data and the average magnetic field strength, the minimum magnetic field strength, and the maximum magnetic field strength to classify with a classifier, magnet tampering conditions with respect to the energy meter; and gathering magnetic field sample data, an average magnetic field strength, a minimum magnetic field strength, and a maximum magnetic field strength from at least one magnetic field condition applied to an energy meter by a magnetic sensor that measures a magnetic field in at least one of a plurality of directions; using learning coefficients calculated from the magnetic field sample data and the average magnetic field strength, the minimum magnetic field strength, and the maximum magnetic field strength to classify with a classifier, magnet tampering conditions with respect to the energy meter; and in a second phase: identifying a magnet tamper event with respect to the energy meter when the magnet tampering condition classified by the classifier is greater than a magnetic detection threshold.
A Power Slide, comprising a left slide and a right slide, wherein the left slide and the right slide each comprise: a top rail and a bottom rail, wherein the top rail is arranged above the bottom rail and is slidably connected to the bottom rail, and a notch is formed in a middle of the top rail; a lead screw, wherein the lead screw is arranged above the bottom rail in parallel and has two ends fixedly connected to the bottom rail; an electric motor comprising a housing, a rotor shaft and a stator shaft, characterized in that the housing is mounted in the notch, the stator shaft is fixedly connected into the housing, the rotor shaft penetrates into the stator shaft and is rotatably connected to the stator shaft, and an interior of the rotor shaft is connected to the lead screw in a threaded manner, the rotor shaft comprising a rotor shaft body and an internal threaded shaft, an outer surface of the internal threaded shaft is fixedly connected to the rotor shaft body, and an interior of the internal threaded shaft is connected to the lead screw in a threaded manner, the power slide further comprising bearings and end covers, wherein inner rings of the bearings are disposed around two ends of the internal threaded shaft, and outer rings of the bearings are connected to the stator shaft through the end covers, wherein clamping blocks are arranged on outer end faces of the end covers, clamping grooves are formed in the notch, and the clamping blocks are matched with the clamping grooves. a top rail and a bottom rail, wherein the top rail is arranged above the bottom rail and is slidably connected to the bottom rail, and a notch is formed in a middle of the top rail; a lead screw, wherein the lead screw is arranged above the bottom rail in parallel and has two ends fixedly connected to the bottom rail; an electric motor comprising a housing, a rotor shaft and a stator shaft, characterized in that the housing is mounted in the notch, the stator shaft is fixedly connected into the housing, the rotor shaft penetrates into the stator shaft and is rotatably connected to the stator shaft, and an interior of the rotor shaft is connected to the lead screw in a threaded manner, the rotor shaft comprising a rotor shaft body and an internal threaded shaft, an outer surface of the internal threaded shaft is fixedly connected to the rotor shaft body, and an interior of the internal threaded shaft is connected to the lead screw in a threaded manner, the power slide further comprising bearings and end covers, wherein inner rings of the bearings are disposed around two ends of the internal threaded shaft, and outer rings of the bearings are connected to the stator shaft through the end covers, wherein clamping blocks are arranged on outer end faces of the end covers, clamping grooves are formed in the notch, and the clamping blocks are matched with the clamping grooves.
A method implemented by a digital radiographic detector (40; 300; 400), the method comprising: receiving a synchronization signal indicating a transition between image integration and image readout; detecting a first mode signal in the synchronization signal, including determining a first characteristic of the first mode signal; associating the first characteristic of the first mode signal with a first image disposition procedure; receiving a dark image frame corresponding to the first mode signal; dispositioning the dark image frame according to the first image disposition procedure; detecting a second mode signal in the synchronization signal, including determining a second characteristic of the second mode signal; associating the second characteristic of the second mode signal with a second image disposition procedure; receiving a second image frame corresponding to the second mode signal; and dispositioning the second image frame according to the second image disposition procedure; wherein the first image disposition procedure comprises storing the received dark image frame to be used as an offset correction map and combining the received dark image frame with previously received dark image frames, if any, and wherein the second disposition procedure comprises correcting the received second image frame by using the stored accumulated offset correction map, and transmitting the corrected image frame to a host system. receiving a synchronization signal indicating a transition between image integration and image readout; detecting a first mode signal in the synchronization signal, including determining a first characteristic of the first mode signal; associating the first characteristic of the first mode signal with a first image disposition procedure; receiving a dark image frame corresponding to the first mode signal; dispositioning the dark image frame according to the first image disposition procedure; detecting a second mode signal in the synchronization signal, including determining a second characteristic of the second mode signal; associating the second characteristic of the second mode signal with a second image disposition procedure; receiving a second image frame corresponding to the second mode signal; and dispositioning the second image frame according to the second image disposition procedure; wherein the first image disposition procedure comprises storing the received dark image frame to be used as an offset correction map and combining the received dark image frame with previously received dark image frames, if any, and wherein the second disposition procedure comprises correcting the received second image frame by using the stored accumulated offset correction map, and transmitting the corrected image frame to a host system.
An apparatus for operating on tissue, the apparatus comprising: (a) a body; (b) a shaft assembly extending distally from the body; (c) an ultrasonic blade disposed at a distal end of the shaft assembly; and (d) an acoustic assembly, comprising: (i) an acoustic waveguide coupled with the blade, (ii) a piezoelectric transducer element, wherein the piezoelectric transducer element defines an inner diameter surface and an outer diameter surface, wherein the piezoelectric transducer element is configured to convert electrical power into ultrasonic vibrations when a voltage is applied to the inner diameter and outer diameter surfaces, and (iii) a fastener configured to secure the piezoelectric transducer element relative to the acoustic waveguide, and (iv) a coupling member configured to provide electrical continuity between the fastener and the inner diameter surface of the piezoelectric transducer element. (a) a body; (b) a shaft assembly extending distally from the body; (c) an ultrasonic blade disposed at a distal end of the shaft assembly; and (d) an acoustic assembly, comprising: (i) an acoustic waveguide coupled with the blade, (ii) a piezoelectric transducer element, wherein the piezoelectric transducer element defines an inner diameter surface and an outer diameter surface, wherein the piezoelectric transducer element is configured to convert electrical power into ultrasonic vibrations when a voltage is applied to the inner diameter and outer diameter surfaces, and (iii) a fastener configured to secure the piezoelectric transducer element relative to the acoustic waveguide, and (iv) a coupling member configured to provide electrical continuity between the fastener and the inner diameter surface of the piezoelectric transducer element. (i) an acoustic waveguide coupled with the blade, (ii) a piezoelectric transducer element, wherein the piezoelectric transducer element defines an inner diameter surface and an outer diameter surface, wherein the piezoelectric transducer element is configured to convert electrical power into ultrasonic vibrations when a voltage is applied to the inner diameter and outer diameter surfaces, and (iii) a fastener configured to secure the piezoelectric transducer element relative to the acoustic waveguide, and (iv) a coupling member configured to provide electrical continuity between the fastener and the inner diameter surface of the piezoelectric transducer element.
Flange of a wind turbine - whereby the flange comprises a flange plate that is connected to a part of the wind turbine, - whereby the flange plate and the part of the wind turbine are connected via an edge to form an L-shaped flange, - whereby the flange plate comprises a connection side to be detachable connected to a counterpart, - whereby the flange plate comprises a plurality of holes to be used with connection means when the flange is connected to the counterpart, - whereby a recess is arranged in the surface of the connection side between the edge of the flange plate and the plurality of holes, characterized in that the recess is present in the leg of the L-shaped flange and thus in the part of the flange plate that protrudes over the part of the wind turbine, so that the distance between the edge and the recess is bigger that the thickness of the part of the wind turbine, whereby the thickness of the material of the flange plate is reduced by the recess to allow a flexible deformation of the flange plate under high loads, so that a flange connection is allowed to open in the area of the recess, to reduce fatigue loads in the area of the holes of the flange plate. - whereby the flange comprises a flange plate that is connected to a part of the wind turbine, - whereby the flange plate and the part of the wind turbine are connected via an edge to form an L-shaped flange, - whereby the flange plate comprises a connection side to be detachable connected to a counterpart, - whereby the flange plate comprises a plurality of holes to be used with connection means when the flange is connected to the counterpart, - whereby a recess is arranged in the surface of the connection side between the edge of the flange plate and the plurality of holes,
3D printing injector having an electrically controllable actuator, and having means for cooling and thus for dissipating the heat from the actuator, wherein as actuator a piezoelectric actuator with piezoelectric element is provided, which is directly surrounded by a cylindrical coolant jacket that can be flowed through by a cooling medium, in which the piezoelectric actuator is also guided, wherein the actuator extends axially in the movement direction, and that the actuator extends axially in the movement direction, and in that the coolant jacket extends at least over the axial length of the piezoelectric element, wherein the coolant jacket is surrounded by a further guide sleeve, wherein the axially extended piezoelectric actuator is clamped at both ends in centrically arranged cardanic clamping or support elements, wherein the coolant inlet in the actuator is placed at the bottom, characterized in that in the case of a cooling with a gaseous medium the outlet connector of the medium heated after the cooling is placed above the upper centric cardanic support, or in that in the case of a cooling with a liquid medium the outlet connector of the medium heated after the cooling is placed between the upper end of the piezoelectric element of the actuator and the upper centric cardanic support.
A core subassembly for manufacturing a component of a gas turbine engine, the core assembly comprising: a first core body having a first trunk configured to attach to a first location of a cavity core structure, a first branch of the first core body extending from the first trunk and configured to form a first portion of a first cooling circuit in the component; and a second core body having a second trunk configured to attach to a second location of a cavity core structure, a first branch of the second core body extending from the second trunk and configured to form a first portion of a second cooling circuit in the component; characterised in that: the first branch has a first joining surface and the first branch of the second core body has a second joining surface joined to the first joining surface to form a junction, wherein the junction defines a merger of the first cooling circuit and the second cooling circuit proximate to an exit of the first and second cooling circuits from the component. a first core body having a first trunk configured to attach to a first location of a cavity core structure, a first branch of the first core body extending from the first trunk and configured to form a first portion of a first cooling circuit in the component; and a second core body having a second trunk configured to attach to a second location of a cavity core structure, a first branch of the second core body extending from the second trunk and configured to form a first portion of a second cooling circuit in the component; characterised in that: the first branch has a first joining surface and the first branch of the second core body has a second joining surface joined to the first joining surface to form a junction, wherein the junction defines a merger of the first cooling circuit and the second cooling circuit proximate to an exit of the first and second cooling circuits from the component. the first branch has a first joining surface and the first branch of the second core body has a second joining surface joined to the first joining surface to form a junction, wherein the junction defines a merger of the first cooling circuit and the second cooling circuit proximate to an exit of the first and second cooling circuits from the component.