mhurhangee/ep-ind-claims huggingface dataset:
A circuit comprising: - a plurality of memory cells in a row; - at least one read word line; - at least one plurality of read circuits; - a plurality of the read circuits of the at least one plurality of the read circuits corresponding to the plurality of memory cells in the row; and - at least one read support circuit; wherein a respective read word line of the at least one read word line is coupled to a respective read support circuit of the at least one read support circuit and to the plurality of read circuits of the at least one plurality of read circuits, thereby coupled to a respective read circuit; wherein a memory cell of the plurality of memory cells in the row is coupled to the respective read circuit; characterized in that the respective read support circuit includes a first NMOS transistor, having a first gate, a first drain, and a first source; the respective read circuit includes a second NMOS transistor having a second gate, a second drain, and a second source, and a third NMOS transistor having a third gate, a third drain, and a third source; the respective read word line is coupled to the first gate and the second gate; the first drain is coupled to the third source; the third gate is coupled to a node (NO, NOB) of the memory cell; the third drain is coupled to the second source; the second drain is coupled to a read bit line; and the respective read word line is configured to control the first NMOS transistor of the respective read support circuit in a first support mode when the memory cell operates in a first memory mode and to control the first NMOS transistor of the respective read support circuit in a second support mode when the memory cell operates in a second memory mode. - a plurality of memory cells in a row; - at least one read word line; - at least one plurality of read circuits; - a plurality of the read circuits of the at least one plurality of the read circuits corresponding to the plurality of memory cells in the row; and - at least one read support circuit; characterized in that the respective read support circuit includes a first NMOS transistor, having a first gate, a first drain, and a first source; the respective read circuit includes a second NMOS transistor having a second gate, a second drain, and a second source, and a third NMOS transistor having a third gate, a third drain, and a third source; the respective read word line is coupled to the first gate and the second gate; the first drain is coupled to the third source; the third gate is coupled to a node (NO, NOB) of the memory cell; the third drain is coupled to the second source; the second drain is coupled to a read bit line; and the respective read word line is configured to control the first NMOS transistor of the respective read support circuit in a first support mode when the memory cell operates in a first memory mode and to control the first NMOS transistor of the respective read support circuit in a second support mode when the memory cell operates in a second memory mode.
A method for a wireless communication network comprising at least one base station associated to a corresponding area for transmitting/receiving data to/from corresponding user terminals UE(q) located within said area, comprises - receiving at each base station a user-rate matrix, each element of the user-rate matrix providing a corresponding score, in terms of achievable rate, to a user terminal or to a group of user terminals located within the corresponding area when a transmission is made to/from said user terminal or said group of user terminals, respectively, from/to the base station by employing a selected transmission mode among a set of predetermined transmission modes, - at the base station, processing the elements of the user-rate matrix in order to create a scheduling list where the elements are sorted by a decreasing score, and - associating to each user terminal a corresponding selected transmission mode based on the scheduling list for the transmission/reception of data to/from the base station, wherein: - said set of predetermined transmission modes includes at least a spatial multiplexing transmission mode, a transmit diversity transmission mode and a multi-user multiple-input multiple-output transmission mode, and the bandwidth of each area is partitioned in a corresponding plurality of resource blocks (RB(b)), said user-rate matrix comprises a plurality of corresponding sub-matrixes, each sub-matrix corresponding to a specific resource block, wherein each element of a sub-matrix provides a corresponding score to a user terminal or to a group of user terminals located within the corresponding area when a transmission is made to/from said user terminal or said group of user terminals, respectively, from/to the base station by employing a selected transmission mode among the set of predetermined transmission modes using the corresponding resource block, and wherein said group of user terminals comprises a pair of user terminals. - receiving at each base station a user-rate matrix, each element of the user-rate matrix providing a corresponding score, in terms of achievable rate, to a user terminal or to a group of user terminals located within the corresponding area when a transmission is made to/from said user terminal or said group of user terminals, respectively, from/to the base station by employing a selected transmission mode among a set of predetermined transmission modes, - at the base station, processing the elements of the user-rate matrix in order to create a scheduling list where the elements are sorted by a decreasing score, and - associating to each user terminal a corresponding selected transmission mode based on the scheduling list for the transmission/reception of data to/from the base station, wherein: - said set of predetermined transmission modes includes at least a spatial multiplexing transmission mode, a transmit diversity transmission mode and a multi-user multiple-input multiple-output transmission mode, and
A precision ceramic walling block having two opposite loading surfaces (2, 2') which are precisely machined to a flatness lying within a tolerance of ± 1,0 mm, two opposite contact surfaces (3, 3') and two opposite facing surfaces (4, 4') of which at least one facing surface (4, 4') is provided with a finishing coat applied to the surface of the block, wherein the finishing coating is formed as a calibration layer, which is made of a hardened material on a silicate base and whose thickness (Δti) at any point of the surface of the calibration layer corresponds to the value Δt i = L v − L ji, where L ji represents the nominal distance between the central plane of the symmetry of the block lying in the center between the facing surfaces (4,4') and the surface of the facing surface (4,4') of the block before the application of the calibration layer L v represents the final desired calibrated distance of the surface of the calibration layer on the respective facing surface (4,4') from the central plane of symmetry of the block lying in the center between the facing faces (4,4'), wherein the value L v lies within a tolerance of ±1 mm. L ji represents the nominal distance between the central plane of the symmetry of the block lying in the center between the facing surfaces (4,4') and the surface of the facing surface (4,4') of the block before the application of the calibration layer L v represents the final desired calibrated distance of the surface of the calibration layer on the respective facing surface (4,4') from the central plane of symmetry of the block lying in the center between the facing faces (4,4'),
A process for the production of a circuit carrier equipped with at least one surface-mount LED (SMD-LED), wherein the at least one SMD-LED is positioned in oriented relationship to one or more reference points of the circuit carrier on the circuit carrier, wherein the position of a light-emitting region of the at least one SMD-LED is optically detected in the SMD-LED and the at least one SMD-LED is mounted to the circuit carrier in dependence on the detected position of the light-emitting region of the at least one SMD-LED, characterised in that for detecting the position of the light-emitting region the SMD-LED is illuminated with a light source having a wavelength adapted to the LED spectrum.
An address generator (300, 400, 500) for a computer with a single instruction multiple data architecture comprising several elementary processors (PE0, PE1, PE2, PE3), each associated with a local memory, each elementary processor having access to its local memory and at least one access to a neighbouring local memory of another elementary processor, the address generator being configured, in response to a computing instruction, to determine an identical memory access address (ADMEM) for all elementary processors, the address generator comprising: - a first computing unit (301, 401) for computing a first access offset value in a first addressing dimension, and - an adder for computing the memory access address (ADMEM) as the sum of the first access offset value and of a predetermined initial offset value dependent on a memory access type indicated by the computing instruction from among a memory access to the local memory or a memory access to any one of the neighbouring local memories. - a first computing unit (301, 401) for computing a first access offset value in a first addressing dimension, and - an adder for computing the memory access address (ADMEM) as the sum of the first access offset value and of a predetermined initial offset value dependent on a memory access type indicated by the computing instruction from among a memory access to the local memory or a memory access to any one of the neighbouring local memories.
Liquid-crystalline medium having negative dielectric anisotropy based on a mixture of polar compounds, characterised in that it comprises at least one compound of the formula I, in which R 1, R 1* each, independently of one another, denote an alkyl radical having 1-6 C atoms, and a denotes 0 or 1, and at least one polymerisable compound (reactive mesogen) is added to the medium, and the medium comprises at least three compounds of the formulae I-1 to I-6, R 1, R 1* each, independently of one another, denote an alkyl radical having 1-6 C atoms, and a denotes 0 or 1,
polyolefin-based porous film made of a polyolefin-based resin composition, having a pore surface area of 35.0 to 42.0 m 2 /g and birefringence of 2.0×10 -2 to 4.0×10 -2, wherein the birefringence is a difference between a refractive index of the extruding direction and a refractive index of the direction perpendicular to the extruding direction with respect to light having a wavelength of 590 nm and wherein the pore surface area is measured by a mercury intrusion technique using a pore distribution measuring apparatus.
A composition comprising an ethylene-based polymer and wherein the ethylene-based polymer has the following properties: a CO content from 0.2 to 0.9 weight percent CO (carbon monoxide), based on the weight of the polymer; a melt index from 0.3 to 1.0 g/10 min; a density from 0.923 to 0.928 g/cc; a 2% secant modulus (measured on a compression molded plaque) in the range of 186 MPa to 234 MPa (27,000 to 34,000 psi); and C1 branching; and wherein the ethylene-based polymer has a melting point, Tm, in °C, that meets the following relationship: Tm (°C) < 601.4 ∗ (Density in g/cc) - 447.8°C; and wherein the ethylene-based polymer is formed from a high pressure, free radical polymerization process, and wherein propylene as a chain transfer agent is added to the polymerization process. a CO content from 0.2 to 0.9 weight percent CO (carbon monoxide), based on the weight of the polymer; a melt index from 0.3 to 1.0 g/10 min; a density from 0.923 to 0.928 g/cc; a 2% secant modulus (measured on a compression molded plaque) in the range of 186 MPa to 234 MPa (27,000 to 34,000 psi); and C1 branching; and
A bone plug compression instrument for reshaping a bone plug, the bone plug compression instrument comprising: • a first compression element comprising a first cavity comprising a first compression surface; • a second compression element comprising a second cavity comprising a second compression surface; and • a base portion for supporting the first compression element and the second compression element, wherein the second compression element is configured to move relative to the first compression element between a first position and a second, different position, wherein in the first position, the bone plug compression instrument forms an open configuration, in which the first and second cavities (21, 41) are spaced apart from each other allowing the bone plug in a substantially uncompressed state to be inserted in a space between the first and second compression surfaces, and in the second position, the bone plug compression instrument forms a closed configuration, in which the first and second cavities (21, 41) form a combined cavity for compressing the bone plug received in the combined cavity, and wherein the combined cavity has at least a partially converging shape, characterised in that the base portion comprises a first guide element, and the second compression element comprises a second guide element configured to engage with the first guide element such that the second compression element is configured to slidingly engage the first guide element to allow the second compression element to move at least from the first position to the second position, and in that the bone plug compression instrument comprises a first lever arm pivotably connected to the second compression element by a first connection mechanism such that when the first lever arm is in an elevated position with respect to the base portion, the bone plug compression instrument is in the open configuration, and when the first and lever arm is in an opposite, non-elevated position with respect to the base portion, the bone plug compression instrument is in the closed configuration. • a first compression element comprising a first cavity comprising a first compression surface; • a second compression element comprising a second cavity comprising a second compression surface; and • a base portion for supporting the first compression element and the second compression element,
A printer comprising: a printer main body configured to perform printing on a long medium, a supporting frame configured to support the printer main body from a lower side, a tension applying mechanism including a tension bar configured to come into contact with the medium before printing and apply a tension to the medium, and characterized by a first roll attaching portion and a second roll attaching portion to which the medium before printing wound into a roll shape is attachable, wherein the first roll attaching portion, the tension bar, and the second roll attaching portion are disposed on one side of the supporting frame in a first direction, which is one direction in a horizontal direction, and are disposed in such order from the supporting frame side in the first direction; the medium after printing is wound into a roll shape on the other side of the supporting frame in the first direction; assuming that the medium before printing wound into a roll shape and attached to the first roll attaching portion is a first roll and the medium before printing wound into a roll shape and attached to the second roll attaching portion is a second roll, a maximum outer diameter of the second roll is larger than a maximum outer diameter of the first roll; and the tension applying mechanism includes a frame in which a guide groove having a slit shape for guiding the tension bar in a vertical direction is formed. a printer main body configured to perform printing on a long medium, a supporting frame configured to support the printer main body from a lower side, a tension applying mechanism including a tension bar configured to come into contact with the medium before printing and apply a tension to the medium, and characterized by a first roll attaching portion and a second roll attaching portion to which the medium before printing wound into a roll shape is attachable, wherein the first roll attaching portion, the tension bar, and the second roll attaching portion are disposed on one side of the supporting frame in a first direction, which is one direction in a horizontal direction, and are disposed in such order from the supporting frame side in the first direction; the medium after printing is wound into a roll shape on the other side of the supporting frame in the first direction; assuming that the medium before printing wound into a roll shape and attached to the first roll attaching portion is a first roll and the medium before printing wound into a roll shape and attached to the second roll attaching portion is a second roll, a maximum outer diameter of the second roll is larger than a maximum outer diameter of the first roll; and the tension applying mechanism includes a frame in which a guide groove having a slit shape for guiding the tension bar in a vertical direction is formed.
A miniature interrogator antenna assembly comprising: a housing; a first miniature horn antenna in the housing having a first aperture; a second miniature horn antenna in the housing having a second aperture, wherein the first and second miniature horn antennas are arranged in a canted configuration and are joint at a front of the assembly, and wherein the first and second apertures form combined apertures at the front of the assembly; a splitter/combiner (120, 210, 310) having a matching portion, wherein the matching portion is positioned in the housing in such a way that an apex of the matching portion points to the front of the assembly; a plurality of annular grooves formed around the combined apertures at the front of the assembly; a sum input port (124, 208, 308) coupled to a first waveguide with an H-plane bend feeding the splitter/combiner; and a difference input port (206, 306) coupled to a second waveguide feeding the splitter/combiner directly, wherein the miniature interrogator antenna assembly is configured to transmit a sum pattern or a difference pattern depending of which input port is selected. a housing; a first miniature horn antenna in the housing having a first aperture; a second miniature horn antenna in the housing having a second aperture, wherein the first and second miniature horn antennas are arranged in a canted configuration and are joint at a front of the assembly, and wherein the first and second apertures form combined apertures at the front of the assembly; a splitter/combiner (120, 210, 310) having a matching portion, wherein the matching portion is positioned in the housing in such a way that an apex of the matching portion points to the front of the assembly; a plurality of annular grooves formed around the combined apertures at the front of the assembly; a sum input port (124, 208, 308) coupled to a first waveguide with an H-plane bend feeding the splitter/combiner; and a difference input port (206, 306) coupled to a second waveguide feeding the splitter/combiner directly, wherein the miniature interrogator antenna assembly is configured to transmit a sum pattern or a difference pattern depending of which input port is selected.
An idling stop system for stopping and re-starting a motor in a traveling stop state of a vehicle, comprising: a braking control unit for performing a braking force holding control for at least temporarily holding a brake force generated by operation of a brake pedal; and a motor control unit for re-starting the motor which is stopping when a predetermined re-start condition is established during the operation of the brake pedal; characterized by consumed electric power decreasing means (4E, 8, 9, 10, 11) for decreasing a consumed electric power for a part except the motor control unit prior to the re-starting of the motor, and for decreasing a minimum limit voltage that is a condition for performing the braking force holding control regarding a voltage (Av) which is supplied to be applied to an actuator (p, v1) regarding the braking control unit. a braking control unit for performing a braking force holding control for at least temporarily holding a brake force generated by operation of a brake pedal; and a motor control unit for re-starting the motor which is stopping when a predetermined re-start condition is established during the operation of the brake pedal; characterized by consumed electric power decreasing means (4E, 8, 9, 10, 11) for decreasing a consumed electric power for a part except the motor control unit prior to the re-starting of the motor,
An audio system, comprising: at least two audio devices arranged for holding communication among one another; wherein the at least two audio devices include a parent device and a child device as a pair, wherein the parent device is configured to play, with a delay, a first-channel audio signal included in a first audio signal, and to transmit to the child device a second audio signal including at least a second-channel audio signal, which is included in the first audio signal, wherein the child device is configured to receive the second audio signal from the parent device to play the second-channel audio signal, and wherein the parent device is configured to output the audio signal via a buffer, and the child device is configured to output the audio signal without passing through a buffer, in synchronized play. at least two audio devices arranged for holding communication among one another; wherein the at least two audio devices include a parent device and a child device as a pair, wherein the parent device is configured to play, with a delay, a first-channel audio signal included in a first audio signal, and to transmit to the child device a second audio signal including at least a second-channel audio signal, which is included in the first audio signal, wherein the child device is configured to receive the second audio signal from the parent device to play the second-channel audio signal, and wherein the parent device is configured to output the audio signal via a buffer, and the child device is configured to output the audio signal without passing through a buffer, in synchronized play.
A bone conduction microphone device adapted to register speech signals from a user, the bone conduction microphone device comprising a housing comprising an abutment or contact part, the abutment or contact part - having a central axis being substantially parallel to a predetermined distal direction and a predetermined proximal direction, the distal direction generally being a direction away from a voice communication device that the bone conduction microphone device is mounted or attached to and the proximal direction generally being a direction towards the voice communication device, - being adapted to, during use, abut against and be in vibratory contact with tissue of at least a part of a head or neck of the user, and - being further adapted to receive, during use, vibrations representing a speech signal and propagating through at least a part of the user's tissue and/or bone structures in the head or neck of the user when the user is speaking, characterised in that the housing further comprises or is connected to at least one sealing element, the at least one sealing element substantially or at least partly encircling the abutment or contact part about the central axis. - having a central axis being substantially parallel to a predetermined distal direction and a predetermined proximal direction, the distal direction generally being a direction away from a voice communication device that the bone conduction microphone device is mounted or attached to and the proximal direction generally being a direction towards the voice communication device, - being adapted to, during use, abut against and be in vibratory contact with tissue of at least a part of a head or neck of the user, and - being further adapted to receive, during use, vibrations representing a speech signal and propagating through at least a part of the user's tissue and/or bone structures in the head or neck of the user when the user is speaking,