mhurhangee/ep-ind-claims huggingface dataset:
Control module, connected to a microcontroller configured for controlling light modules of a lighting system, having: - a cover plate with at least partially translucent display surfaces (25, 27) and control surfaces (23, 24, 26, 28), - a flat sensor electronics layer arrangement arranged below it, having - sensor electrode surfaces arranged on the side facing the cover plate, - sensor electronics components for controlling the sensor electrode surfaces, - light apertures (4, 72, 73, 74, 75, 76, 77, 78, 79), - a retaining and light-chamber unit with openings, which is arranged on the side of the sensor electronics layer arrangement facing away from the cover plate, the positions of which openings correspond to the positions of the light apertures (4, 72, 73, 74, 75, 76, 77, 78, 79) on the sensor electronics layer arrangement, - a number of display LEDs arranged on the side of the light chamber unit facing away from the sensor electronics layer arrangement, by means of which display LEDs the translucent display surfaces (25, 27) and control surfaces (23, 24, 26, 28) on the cover plate are illuminated through the light chamber unit. - a cover plate with at least partially translucent display surfaces (25, 27) and control surfaces (23, 24, 26, 28), - a flat sensor electronics layer arrangement arranged below it, having - sensor electrode surfaces arranged on the side facing the cover plate, - sensor electronics components for controlling the sensor electrode surfaces, - light apertures (4, 72, 73, 74, 75, 76, 77, 78, 79), - sensor electrode surfaces arranged on the side facing the cover plate, - sensor electronics components for controlling the sensor electrode surfaces, - light apertures (4, 72, 73, 74, 75, 76, 77, 78, 79), - a retaining and light-chamber unit with openings, which is arranged on the side of the sensor electronics layer arrangement facing away from the cover plate, the positions of which openings correspond to the positions of the light apertures (4, 72, 73, 74, 75, 76, 77, 78, 79) on the sensor electronics layer arrangement, - a number of display LEDs arranged on the side of the light chamber unit facing away from the sensor electronics layer arrangement, by means of which display LEDs the translucent display surfaces (25, 27) and control surfaces (23, 24, 26, 28) on the cover plate are illuminated through the light chamber unit.
A method for the manufacture of 9-[2-(phosphonomethoxy)propyl]adenine (PMPA) or 9-[2-(phosphonomethoxy)ethyl] adenine (PMEA) comprising reacting 9-(2-hydroxypropyl)adenine or 9-(2-hydroxyethyl)adenine, magnesium alkoxide, and protected p -toluenesulfonyloxymethylphosphonate.
An operating unit (2, 2', 2") for electromotive furniture drives, comprising the following: - an input device for generating signals for operating at least one drive unit (3, 3', 3") of the furniture drives; - at least one transmission device for the wireless transmission of the generated signals via at least one transmission path to the corresponding drive unit (3, 3', 3"), and - at least one selection unit for selecting one of a plurality of transmission types of the at least one transmission device for the generated signals, characterized in that the transmission types are formed as a division of the signals to be transmitted to one respective transmission path (11, 12, 13) of the transmission path over time slices (18, 19, 20) within a transmission path (11, 12, 13), wherein at least one time slice (18, 19, 20) has a variable duration (t a...c) and/or at least one interval (t x, t y) between adjoining time slices (18, 19, 20) is formed in a variable manner in such a way that the signals of different transmission devices occupy the transmission path successively at different times. - an input device for generating signals for operating at least one drive unit (3, 3', 3") of the furniture drives; - at least one transmission device for the wireless transmission of the generated signals via at least one transmission path to the corresponding drive unit (3, 3', 3"), and - at least one selection unit for selecting one of a plurality of transmission types of the at least one transmission device for the generated signals,
A coupling for connecting at least two connection elements for a fluid medium, for example a pipe coupling for connecting two pipes for a fluid medium, with a coupling body, wherein the coupling body has a first connection end for connecting a first connection element and a second connection end for connecting a second connection element, wherein a flow channel between the first connection end of the coupling body and the second connection end of the coupling body is formed in the coupling body, wherein the coupling body has a sensor chamber separated from the flow channel by a partition wall, wherein a sensor is arranged in the sensor chamber, wherein a sensor section is hooked up to the sensor, with the sensor section extending through the partition wall proceeding from the sensor in such a way that a flow channel side end of the sensor section is in contact with the flow channel, and wherein the coupling body abuts against the sensor section without a seal, characterized in that the sensor chamber is integrally designed with the coupling body, and that the coupling body abuts directly against the sensor and the sensor section.
A method by a first base station, the method comprising: receiving system information including master information block, MIB, and system information block, SIB, from at least one second base station (102, 103); identifying a list of public land mobile network, PLMN, identities for the at least one second base station (102, 103) based on the system information; and selecting a channel for a secondary serving cell, SCell, in an unlicensed band based on the list of the PLMN identities the channel being configured for the at least one second base station with a same PLMN identity as a PLMN identity of the first base station. receiving system information including master information block, MIB, and system information block, SIB, from at least one second base station (102, 103); identifying a list of public land mobile network, PLMN, identities for the at least one second base station (102, 103) based on the system information; and selecting a channel for a secondary serving cell, SCell, in an unlicensed band based on the list of the PLMN identities the channel being configured for the at least one second base station with a same PLMN identity as a PLMN identity of the first base station.
A nonaqueous electrolyte battery comprising: a positive electrode comprising a positive electrode current collector and a positive electrode active material-containing layer formed on the positive electrode current collector, the positive electrode active material-containing layer comprising particles of at least one lithium-nickel composite oxide and particles of a conductive agent; a negative electrode; and a nonaqueous electrolyte, characterized in that the particles in the positive electrode active material-containing layer have such a particle size distribution obtained by a laser diffraction scattering method that the average particle diameter d 50 is within a range of 1 μm to 5.5 μm, the maximum particle diameter is within a range of 10 μm to 100 μm, the particle diameter d 10 is within a range of 0.5 μm to 3 μm, and X, represented by X = (d 50 - d 10)/d 50, is within a range of 0.5 to less than 1. a positive electrode comprising a positive electrode current collector and a positive electrode active material-containing layer formed on the positive electrode current collector, the positive electrode active material-containing layer comprising particles of at least one lithium-nickel composite oxide and particles of a conductive agent; a negative electrode; and a nonaqueous electrolyte, characterized in that the particles in the positive electrode active material-containing layer have such a particle size distribution obtained by a laser diffraction scattering method that the average particle diameter d 50 is within a range of 1 μm to 5.5 μm, the maximum particle diameter is within a range of 10 μm to 100 μm, the particle diameter d 10 is within a range of 0.5 μm to 3 μm, and X, represented by X = (d 50 - d 10)/d 50, is within a range of 0.5 to less than 1.
Optical fiber sensing device, comprising: - a base, - an actuator connected to the base and having an actuator axis, - an elastic hinge connecting the actuator to the base, wherein the elastic hinge allows the actuator to move or deflect in a movement plane with respect to the base from an unmoved state to a moved state, - a pair of optical fiber portions extending in the movement plane, the pair of optical fiber portions contacting the actuator in multiple contacting positions, wherein the pair of optical fiber portions are pre-strained and the optical fiber portions comprise light modulation structures, that preferably comprise Fiber Bragg gratings, characterized in that - in the unmoved state the actuator comprises a symmetry plane perpendicular to the movement plane, wherein the pair of optical fiber portions are symmetrically arranged with respect to the symmetry plane, such that the movement or deflection of the actuator causes a change in strain in one of the optical fiber portions and a proportional or equal change in strain of opposite sign in the other optical fiber portion. - a base, - an actuator connected to the base and having an actuator axis, - an elastic hinge connecting the actuator to the base, wherein the elastic hinge allows the actuator to move or deflect in a movement plane with respect to the base from an unmoved state to a moved state, - a pair of optical fiber portions extending in the movement plane, the pair of optical fiber portions contacting the actuator in multiple contacting positions, wherein the pair of optical fiber portions are pre-strained and the optical fiber portions comprise light modulation structures, that preferably comprise Fiber Bragg gratings, characterized in that - in the unmoved state the actuator comprises a symmetry plane perpendicular to the movement plane, wherein the pair of optical fiber portions are symmetrically arranged with respect to the symmetry plane, such that the movement or deflection of the actuator causes a change in strain in one of the optical fiber portions and a proportional or equal change in strain of opposite sign in the other optical fiber portion.
An analyser for collecting and analysing a breath condensate, the analyser comprising a housing, the housing having a cooling means and, further, retaining a cartridge device comprising a condensation zone to condense exhaled breath from a subject, the cooling means being in cooling relationship with the condensation zone, the device including one or more further discrete regions for detection of analyte and measurement of analyte, the cartridge device further comprising a fluid path connecting the condensation zone to the or each discrete region, the housing including a mouth-piece having an entry port to enable a user to breathe into the mouth-piece, the mouth-piece comprising one or more fluid passages to direct breath entering the mouth-piece into the condensation zone, characterised in that the mouth-piece comprises an exit valve, and, interposed between the entry port and the exit valve a plurality of chambers (121 - 123) to direct fluid flow from the entry port to the exit valve, the chambers being so configured to cause a change of 90° in the direction of fluid flow.
A closed-system flow cell system comprising an encasement, the encasement comprises: a. a bottom portion, the bottom portion comprises a slide indentation adapted to accept a slide; b. a top portion having a flow surface, the flow surface being a surface for facing the slide, wherein a channel indentation 216 is disposed in the flow surface and sunken in a distance as compared to the flow surface, the channel indentation forms a channel, wherein a groove pattern is disposed on at least a portion of the channel indentation, wherein the groove pattern provides a chaotic advection regime to fluid within the channel, wherein the top portion and the bottom portion are fastened together via fastening systems, wherein the system further comprises an inlet fluidly connected to the channel and an outlet fluidly connected to the channel, the outlet is positioned opposite the inlet, the inlet allows reagents to enter the channel and the outlet allows reagents to exit the channel, wherein the system is hermetically sealed. a. a bottom portion, the bottom portion comprises a slide indentation adapted to accept a slide; b. a top portion having a flow surface, the flow surface being a surface for facing the slide, wherein a channel indentation 216 is disposed in the flow surface and sunken in a distance as compared to the flow surface, the channel indentation forms a channel, wherein a groove pattern is disposed on at least a portion of the channel indentation, wherein the groove pattern provides a chaotic advection regime to fluid within the channel, wherein the top portion and the bottom portion are fastened together via fastening systems,
A method for controlling power transmission in inductively coupled power transmission system comprising: a. waiting a time duration; b. electrically exciting a primary coil in a power transmitter; c. receiving at least one signal indicative of resonance properties of said primary coil; d. determining if a secondary coil in a power receiver is inductively coupled to said primary coil by determining a change in effective inductance of said primary coil; and e. repeating steps a-d if said secondary coil is not inductively coupled to said primary coil characterized in that said determining if a secondary coil in a power receiver is inductively coupled to said primary coil further includes: determining a change in effective resistance of said primary coil; and determining a match between values indicative of effective inductance of said primary coil and values indicative of effective resistance of said primary coil to at least one set of values associated with a primary coil coupled to a secondary coil. a. waiting a time duration; b. electrically exciting a primary coil in a power transmitter; c. receiving at least one signal indicative of resonance properties of said primary coil; d. determining if a secondary coil in a power receiver is inductively coupled to said primary coil by determining a change in effective inductance of said primary coil; and e. repeating steps a-d if said secondary coil is not inductively coupled to said primary coil determining a change in effective resistance of said primary coil; and determining a match between values indicative of effective inductance of said primary coil and values indicative of effective resistance of said primary coil to at least one set of values associated with a primary coil coupled to a secondary coil.
An airbag device, comprising: an airbag that is disposed in a vehicle in use and that is formed in a bag shape to deploy by being supplied with gas, the airbag being adapted to increase in width gradually from a neck portion between a head facing portion and the neck portion through which the gas is introduced, the head facing portion being adapted to face a head of an occupant during inflation deployment of the airbag; and throttle portions that provide coupling of parts of an occupant side and a side opposite from the occupant of the airbag during the inflation deployment of the airbag to each other to narrow an internal space between the neck portion and the head facing portion, characterized in that the throttle portions are formed at intervals in a width direction of the airbag, the width direction being in a width direction of the vehicle during the inflation deployment of the airbag, and contours of the throttle portions positioned outermost in the width direction are parallel to the side edge portions (40L, 40R) of the airbag positioned outside the contours in the width direction, and contours that are of the throttle portions, that are arranged adjacent to each other and that face each other are approximately parallel to each other, each of separation distances (W1, W3) between the throttle portions positioned outermost in the width direction and the side edge portions (40L, 40R) is constant. an airbag that is disposed in a vehicle in use and that is formed in a bag shape to deploy by being supplied with gas, the airbag being adapted to increase in width gradually from a neck portion between a head facing portion and the neck portion through which the gas is introduced, the head facing portion being adapted to face a head of an occupant during inflation deployment of the airbag; and throttle portions that provide coupling of parts of an occupant side and a side opposite from the occupant of the airbag during the inflation deployment of the airbag to each other to narrow an internal space between the neck portion and the head facing portion, characterized in that the throttle portions are formed at intervals in a width direction of the airbag, the width direction being in a width direction of the vehicle during the inflation deployment of the airbag, and contours of the throttle portions positioned outermost in the width direction are parallel to the side edge portions (40L, 40R) of the airbag positioned outside the contours in the width direction, and contours that are of the throttle portions, that are arranged adjacent to each other and that face each other are approximately parallel to each other, each of separation distances (W1, W3) between the throttle portions positioned outermost in the width direction and the side edge portions (40L, 40R) is constant.
A combustor of a gas turbine engine, the combustor comprising: a combustor panel comprising an attachment feature extending from a cold side of the combustor panel; a combustor shell defining a hole extending through the combustor shell from a combustor-facing side to a diffuser-facing side, wherein the attachment feature of the combustor panel extends through the hole; and a retention feature coupled to the attachment feature, wherein the hole defined in the combustor shell is disposed between the retention feature and the combustor panel; wherein the retention feature is a nut and defines a passage that provides fluid communication between a diffuser chamber and an annular cooling cavity defined between the cold side of the combustor panel and the combustor-facing side of the combustor shell; characterised in that: an inner edge defining the hole is non-circular; and the passage defined in the nut is one of a plurality of passages defined in the nut, the inner edge defining the hole comprises a lobed geometry having a plurality of lobes circumferentially distributed around the inner edge defining the hole, and the plurality of lobes are configured to align with the plurality of passages. a combustor panel comprising an attachment feature extending from a cold side of the combustor panel; a combustor shell defining a hole extending through the combustor shell from a combustor-facing side to a diffuser-facing side, wherein the attachment feature of the combustor panel extends through the hole; and a retention feature coupled to the attachment feature, wherein the hole defined in the combustor shell is disposed between the retention feature and the combustor panel; wherein the retention feature is a nut and defines a passage that provides fluid communication between a diffuser chamber and an annular cooling cavity defined between the cold side of the combustor panel and the combustor-facing side of the combustor shell; characterised in that: an inner edge defining the hole is non-circular; and the passage defined in the nut is one of a plurality of passages defined in the nut, the inner edge defining the hole comprises a lobed geometry having a plurality of lobes circumferentially distributed around the inner edge defining the hole, and the plurality of lobes are configured to align with the plurality of passages. an inner edge defining the hole is non-circular; and the passage defined in the nut is one of a plurality of passages defined in the nut, the inner edge defining the hole comprises a lobed geometry having a plurality of lobes circumferentially distributed around the inner edge defining the hole, and the plurality of lobes are configured to align with the plurality of passages.
A user equipment, UE, (104a, 200) comprising: a channel estimation module configured to generate first and second channel estimates from first and second interfering cells (106b, 106c); an interference management module configured to compute first and second precoder matrix indicators (PMIs) for the first and second interfering cells respectively based on the first and second channel estimates, wherein the first and second PMIs substantially align first and second interfering signals received from the first and second interfering cells; and one or more antennas (202a, 202b) configured to signal the first and second PMIs to a network entity, characterized in that the interference management module is configured to compute the first and second PMIs according to: i opt, j opt = arg max i, j 〈 H 2 W i ‖ H 2 W i ‖, H 3 W j ‖ H 3 W j ‖ 〉 where i opt and j opt correspond respectively to indices of the first and second PMIs, H 2 corresponds to the first channel estimate from the first interfering cell, H 3 corresponds to the second channel estimate from the second interfering cell, W i denotes a first precoder corresponding to the first PMI, and W j denotes a second precoder corresponding to the second PMI, and 〈 〉 denotes a dot-product operation. a channel estimation module configured to generate first and second channel estimates from first and second interfering cells (106b, 106c); an interference management module configured to compute first and second precoder matrix indicators (PMIs) for the first and second interfering cells respectively based on the first and second channel estimates, wherein the first and second PMIs substantially align first and second interfering signals received from the first and second interfering cells; and one or more antennas (202a, 202b) configured to signal the first and second PMIs to a network entity, characterized in that the interference management module is configured to compute the first and second PMIs according to: i opt, j opt = arg max i, j 〈 H 2 W i ‖ H 2 W i ‖, H 3 W j ‖ H 3 W j ‖ 〉 where i opt and j opt correspond respectively to indices of the first and second PMIs, H 2 corresponds to the first channel estimate from the first interfering cell, H 3 corresponds to the second channel estimate from the second interfering cell, W i denotes a first precoder corresponding to the first PMI, and W j denotes a second precoder corresponding to the second PMI, and 〈 〉 denotes a dot-product operation.