mhurhangee/ep-ind-claims huggingface dataset:
An electronic device comprising: a circuit board; and an antenna fed from the circuit board, and comprising a plurality of electronic components (321, 322) a plurality of conductive components (331,332), each of the plurality of conductive components (331, 332) being disposed on respective partial regions of one of the plurality of electronic components of the electronic device, and at least one connection component connecting the plurality of conductive components (331,332), the at least one connection component corresponding to a Flexible Printed Circuit, FPC, wherein at least one of the conductive components includes a ground area that is configured to be connected to a metallic piece for fixing the FPC. a circuit board; and an antenna fed from the circuit board, and comprising a plurality of electronic components (321, 322) a plurality of conductive components (331,332), each of the plurality of conductive components (331, 332) being disposed on respective partial regions of one of the plurality of electronic components of the electronic device, and at least one connection component connecting the plurality of conductive components (331,332), the at least one connection component corresponding to a Flexible Printed Circuit, FPC, wherein at least one of the conductive components includes a ground area that is configured to be connected to a metallic piece for fixing the FPC.
A method performed by a User Equipment, UE, configured to use Physical Uplink Control Channel, PUCCH, format 3 for transmitting Acknowledgement/Negative Acknowledgement, ACK/NACK, information in a wireless communication system supporting Long Term Evolution, LTE, system, the method comprising: determining whether transmission of ACK/NACK information for a downlink transmission in a downlink subframe set including M downlink subframes is configured in one uplink subframe for transmission of a scheduling request for uplink resources, where M≥1; transmitting the ACK/NACK information and the scheduling request in the one uplink subframe, when the transmission of the ACK/NACK information is configured in the one uplink subframe, wherein the ACK/NACK information and the scheduling request are transmitted based on PUCCH format 1b if one of conditions for PUCCH format 1b is satisfied, and wherein the ACK/NACK information and the scheduling request are transmitted based on PUCCH format 3 unless one of the conditions is satisfied, wherein the conditions include: - one Physical Downlink Control Channel, PDCCH, indicating Semi-Persistent Scheduling, SPS, release with bit values of a Downlink Assignment Index, DAI, equal to '00', - one Physical Downlink Shared Channel, PDSCH, received only on a Primary Cell, PCell, and indicated by a corresponding PDCCH with bit values of a DAI equal to '00', or - one PDSCH without a corresponding PDCCH received on the PCell. determining whether transmission of ACK/NACK information for a downlink transmission in a downlink subframe set including M downlink subframes is configured in one uplink subframe for transmission of a scheduling request for uplink resources, where M≥1; transmitting the ACK/NACK information and the scheduling request in the one uplink subframe, when the transmission of the ACK/NACK information is configured in the one uplink subframe, wherein the ACK/NACK information and the scheduling request are transmitted based on PUCCH format 1b if one of conditions for PUCCH format 1b is satisfied, and wherein the ACK/NACK information and the scheduling request are transmitted based on PUCCH format 3 unless one of the conditions is satisfied, wherein the conditions include: - one Physical Downlink Control Channel, PDCCH, indicating Semi-Persistent Scheduling, SPS, release with bit values of a Downlink Assignment Index, DAI, equal to '00', - one Physical Downlink Shared Channel, PDSCH, received only on a Primary Cell, PCell, and indicated by a corresponding PDCCH with bit values of a DAI equal to '00', or - one PDSCH without a corresponding PDCCH received on the PCell. - one Physical Downlink Control Channel, PDCCH, indicating Semi-Persistent Scheduling, SPS, release with bit values of a Downlink Assignment Index, DAI, equal to '00', - one Physical Downlink Shared Channel, PDSCH, received only on a Primary Cell, PCell, and indicated by a corresponding PDCCH with bit values of a DAI equal to '00', or - one PDSCH without a corresponding PDCCH received on the PCell.
Device for ejecting droplets of an electrically non-conductive fluid at a temperature of 360°C or above, the device comprising; a. a fluid chamber body having a fluid chamber for containing the electrically non-conductive fluid at a temperature of 360°C or above and for containing an electrically conductive medium, the fluid chamber body being made of a material that is heat conductive and heat resistant, the fluid chamber body comprising an orifice extending from the fluid chamber to an outer surface of the fluid chamber body, the fluid chamber being defined such that when the fluid chamber comprises the conductive medium and the electrically non-conductive fluid, the electrically non-conductive fluid and the electrically conductive medium are substantially non-mixed, and at least a part of the electrically non-conductive fluid is positioned in the fluid chamber closer to the orifice than the electrically conductive medium; b. actuation means for actuating the electrically conductive medium, the actuation means comprising at least an electrode for providing an electric current through the electrically conductive medium and a magnet, for providing a magnetic field in the electrically conductive medium, wherein the at least one electrode is in direct electrical contact with the electrically conductive medium; c. heating means for providing heat to an electrically non-conductive medium to melt, forming the electrically non-conductive fluid and heating the electrically non-conductive fluid to a temperature of 360°C or above. a. a fluid chamber body having a fluid chamber for containing the electrically non-conductive fluid at a temperature of 360°C or above and for containing an electrically conductive medium, the fluid chamber body being made of a material that is heat conductive and heat resistant, the fluid chamber body comprising an orifice extending from the fluid chamber to an outer surface of the fluid chamber body, the fluid chamber being defined such that when the fluid chamber comprises the conductive medium and the electrically non-conductive fluid, the electrically non-conductive fluid and the electrically conductive medium are substantially non-mixed, and at least a part of the electrically non-conductive fluid is positioned in the fluid chamber closer to the orifice than the electrically conductive medium; b. actuation means for actuating the electrically conductive medium, the actuation means comprising at least an electrode for providing an electric current through the electrically conductive medium and a magnet, for providing a magnetic field in the electrically conductive medium, wherein the at least one electrode is in direct electrical contact with the electrically conductive medium; c. heating means for providing heat to an electrically non-conductive medium to melt, forming the electrically non-conductive fluid and heating the electrically non-conductive fluid to a temperature of 360°C or above.
A method for frequency selective scheduling of wireless devices (12a, 12b, 12c, 12d) part of a communication network, the method being performed by a wireless network node, characterized by the method comprising the steps of: transmitting a first packet to at least two wireless devices (12a, 12b, 12c, 12d) over the entire available bandwidth of the communication network, wherein said first packet comprises information identifying which wireless devices are addressed by the first packet, and which downlink sub-carriers (212a, 212b, 212c) are used for data transmission to said addressed wireless devices; and receiving a second packet (50a, 50b, 50c, 50d) on uplink sub-carriers (412a,412b, 412c, 412d) allocated to at least said addressed wireless devices and therefrom determining channel quality indications for said uplink sub-carriers, wherein said uplink sub-carriers are allocated to enable said channel quality indications to be determined over said entire bandwidth for at least each one of said addressed wireless devices by at least one of interpolating and extrapolating channel quality indications for at least two uplink sub-carriers, and wherein said uplink sub-carriers for each one of said wireless devices are determined to be frequency interleaved. transmitting a first packet to at least two wireless devices (12a, 12b, 12c, 12d) over the entire available bandwidth of the communication network, wherein said first packet comprises information identifying which wireless devices are addressed by the first packet, and which downlink sub-carriers (212a, 212b, 212c) are used for data transmission to said addressed wireless devices; and receiving a second packet (50a, 50b, 50c, 50d) on uplink sub-carriers (412a,412b, 412c, 412d) allocated to at least said addressed wireless devices and therefrom determining channel quality indications for said uplink sub-carriers, wherein said uplink sub-carriers are allocated to enable said channel quality indications to be determined over said entire bandwidth for at least each one of said addressed wireless devices by at least one of interpolating and extrapolating channel quality indications for at least two uplink sub-carriers, and wherein said uplink sub-carriers for each one of said wireless devices are determined to be frequency interleaved.
Ultrasonic sensor device for arrangement on a fairing component of a vehicle, comprising an ultrasonic sensor and a mount with a carrier and a cap, wherein the ultrasonic sensor comprises an oscillating element, the carrier has a connecting section by means of which the carrier can be connected in a materially joined fashion to the fairing component, and has a frame section which forms a receptacle region for the ultrasonic sensor, wherein an opening, through which the oscillating element of the ultrasonic sensor extends, is provided in the connecting section, and where the cap is detachably fastened to the carrier by means of a latching connection, wherein the cap bounds the receptacle region on the side facing away from the connecting section, characterized in that the carrier is embodied as a hybrid component with a metal inlay which is encapsulated by injection moulding with plastic, wherein the metal inlay extends both over the connecting section and over the frame section, and wherein a first section of the metal inlay extends parallel to a surface by means of which the carrier can be joined to the fairing component, and a second section of the metal inlay extends perpendicular with respect to the first section, and a radial free space is formed between the ultrasonic sensor and the frame section of the carrier in the receptacle region, and the cap has a centring rib which engages at least partially in the free space.
An image pickup element unit comprising an image pickup element substrate having an image pickup element to convert incident light into electric signals mounted thereto and a temperature adjusting member (110; 120) for adjusting the temperature of the image pickup element, wherein the temperature adjusting member (110; 120) has a recessed section and is configured to comprise a left side member (12; 12A; 12B), a right side member, a top side member, a bottom side member, and a rear side member with respect to the recessed section, a heater unit is installed in the left side member (12; 12A; 12B) or the right side member, the image pickup element is placed so as to be surrounded by the left side member (12; 12A; 12B), the right side member, the top side member, the bottom side member, and the rear side member and is fixed to the image pickup element substrate with the intermediate positioning of the rear side member, characterised in that a temperature sensor for detecting the temperature of the image pickup element is provided on the image pickup element substrate, and on the surface of the image pickup element substrate, opposite to the image pickup element, the temperature sensor is provided in a position facing the image pickup element.
An apparatus comprising: a die with a first side and a second side opposite the first side; a plurality of pillars that are electrically conductive and disposed on the first side of the die, each of the plurality of pillars orthogonal to the first side of the die; wherein a pitch of the plurality of pillars is less than 200 μm; an embedded multi-die interconnect bridge, EMIB; and one or more sockets coupled to the EMIB via a solder connection; wherein each socket comprises electrical connectors, a base, and an electrical connection between the electrical connectors and the base, said electrical connectors configured to receive one of said pillars and to bend to allow the pillar to enter the socket, characterised in that said electrical connectors are configured to provide a physical resistance if there is an attempt to extract the pillar from the socket by increasing force against the side of the pillar. a die with a first side and a second side opposite the first side; a plurality of pillars that are electrically conductive and disposed on the first side of the die, each of the plurality of pillars orthogonal to the first side of the die; wherein a pitch of the plurality of pillars is less than 200 μm; an embedded multi-die interconnect bridge, EMIB; and one or more sockets coupled to the EMIB via a solder connection; wherein each socket comprises electrical connectors, a base, and an electrical connection between the electrical connectors and the base, said electrical connectors configured to receive one of said pillars and to bend to allow the pillar to enter the socket, characterised in that said electrical connectors are configured to provide a physical resistance if there is an attempt to extract the pillar from the socket by increasing force against the side of the pillar.
A core spray sparger T-box attachment assembly for a nuclear reactor pressure vessel, the pressure vessel including a shroud, a sparger T-box penetrating the shroud, a plurality of sparger distribution header pipes (302, 304) coupled to the sparger T-box, and a downcomer pipe, the sparger distribution header pipes (302, 304) including at least one sparger nozzle, the attachment assembly including a downcomer pipe coupling and a sparger T-box clamp, the sparger T-box clamp comprising: an anchor plate having a draw bolt opening to receive a draw bolt; a first clamp block substantially aligned at a first end of the anchor plate; and a second clamp block substantially aligned at a second end of the anchor plate; wherein the anchor plate is connected to the first clamp block by a first multiple-degree-of-freedom connection, and wherein the anchor plate is connected to the second clamp block by a second multiple-degree-of-freedom connection. an anchor plate having a draw bolt opening to receive a draw bolt; a first clamp block substantially aligned at a first end of the anchor plate; and a second clamp block substantially aligned at a second end of the anchor plate; wherein the anchor plate is connected to the first clamp block by a first multiple-degree-of-freedom connection, and wherein the anchor plate is connected to the second clamp block by a second multiple-degree-of-freedom connection.
A ballscrew assembly comprising: a ballscrew (104;802) having a primary ballscrew stop and a secondary ballscrew stop, the secondary ballscrew stop comprising an axial facing mating (810,812); and a ballnut having a primary ballnut stop, wherein contact between the primary ballnut stop and the primary ballscrew stop impede rotation of the ballscrew relative to the ballnut, and wherein the axial facing mating of the secondary ballscrew stop engages the ballnut, in response to rotation of the ballnut. a ballscrew (104;802) having a primary ballscrew stop and a secondary ballscrew stop, the secondary ballscrew stop comprising an axial facing mating (810,812); and a ballnut having a primary ballnut stop, wherein contact between the primary ballnut stop and the primary ballscrew stop impede rotation of the ballscrew relative to the ballnut, and wherein the axial facing mating of the secondary ballscrew stop engages the ballnut, in response to rotation of the ballnut.
A method of fabricating a composite structure having a contoured cross section, comprising: assembling a substantially flat ply stack, including - placing a plurality of full plies, and placing at least one partial ply, tacking the full plies together in a medial region of the ply stack and through substantially the entire thickness of the full plies in the stack, tacking the at least one partial ply to an individual one of the full plies within a peripheral region of the ply stack such that in the region of the at least one partial ply the full plies are free to slip and form relative to each other and the at least one partial ply may also slip and form along with the full ply to which it is tacked; and forming the flat ply stack into a contoured shape. assembling a substantially flat ply stack, including - placing a plurality of full plies, and placing at least one partial ply, tacking the full plies together in a medial region of the ply stack and through substantially the entire thickness of the full plies in the stack, tacking the at least one partial ply to an individual one of the full plies within a peripheral region of the ply stack such that in the region of the at least one partial ply the full plies are free to slip and form relative to each other and the at least one partial ply may also slip and form along with the full ply to which it is tacked; and placing a plurality of full plies, and placing at least one partial ply, tacking the full plies together in a medial region of the ply stack and through substantially the entire thickness of the full plies in the stack, tacking the at least one partial ply to an individual one of the full plies within a peripheral region of the ply stack such that in the region of the at least one partial ply the full plies are free to slip and form relative to each other and the at least one partial ply may also slip and form along with the full ply to which it is tacked; and forming the flat ply stack into a contoured shape.
A bone clamp for being attached to a bone, the bone clamp comprising a first lever and a second lever which are connected to each other by a connection, a sliding block and a screw, wherein: - the first lever has a first lever arm from a first end of the first lever to the connection and a second lever arm from a second end of the first lever opposite to the first end to the connection, - the second lever has a third lever arm from a first end of the second lever to the connection and a fourth lever arm from a second end of the second lever opposite to the first end to the connection, - the second ends of the two levers (2, 3) are to get in contact with the bone, - the sliding block is slidably attached to the first lever arm, - the screw is pivotably mounted in the sliding block such that it can be turned about its longitudinal axis and it cannot move along its longitudinal axis relative to the sliding block, - the first lever arm comprises a threaded surface for engaging with the screw mounted in the sliding block such that, if the screw is turned, its thread rotates within the threaded surface of the first lever arm and thus causes a sliding movement of the sliding block along the first lever arm, and - the sliding block comprises a sliding surface on which the third lever arm slides such that the second ends of the levers (2, 3) approach each other when the sliding block moves along the first lever arm in a predetermined direction. - the first lever has a first lever arm from a first end of the first lever to the connection and a second lever arm from a second end of the first lever opposite to the first end to the connection, - the second lever has a third lever arm from a first end of the second lever to the connection and a fourth lever arm from a second end of the second lever opposite to the first end to the connection, - the second ends of the two levers (2, 3) are to get in contact with the bone, - the sliding block is slidably attached to the first lever arm, - the screw is pivotably mounted in the sliding block such that it can be turned about its longitudinal axis and it cannot move along its longitudinal axis relative to the sliding block, - the first lever arm comprises a threaded surface for engaging with the screw mounted in the sliding block such that, if the screw is turned, its thread rotates within the threaded surface of the first lever arm and thus causes a sliding movement of the sliding block along the first lever arm, and - the sliding block comprises a sliding surface on which the third lever arm slides such that the second ends of the levers (2, 3) approach each other when the sliding block moves along the first lever arm in a predetermined direction.
A motor vehicle interior trim component made from a single-layer fiber composite having a first layer and a second layer and a middle layer arranged between the first and the second layer (2, 3), comprising a matrix made from a thermoplastic material, in which first fibers and further fibers are embedded, wherein the first fibers are embedded in the first and the second layer (2, 3) and are selected from a group comprising glass fibers, glassy mineral fibers, carbon fibers, natural fibers and mixtures thereof, and the further fibers are arranged in the middle layer, characterized in that the further fibers are selected from a group comprising plastic fibers and natural fibers and mixtures thereof, and the middle layer comprises exclusively the further fibers as fibers, wherein the proportion of the thermoplastic material in the middle layer is selected from a range of 35 wt.% to 45 wt.% and the rest is formed at 100 wt.% by the further fibers.