mhurhangee/ep-ind-claims huggingface dataset:
A low water dentifrice composition comprising in a single phase: a source of metal ions, wherein the source of metal ions comprises stannous fluoride and zinc citrate; at least one polyphosphate salt selected from the group consisting of inorganic polyphosphate salts which have four or more phosphorous atoms; and a thickening agent consisting of cross-linked polyvinylpyrrolidone; wherein the dentifrice composition is a paste or gel, and wherein the dentifrice composition has a total water content of less than 6% by weight. a source of metal ions, wherein the source of metal ions comprises stannous fluoride and zinc citrate; at least one polyphosphate salt selected from the group consisting of inorganic polyphosphate salts which have four or more phosphorous atoms; and a thickening agent consisting of cross-linked polyvinylpyrrolidone; wherein the dentifrice composition is a paste or gel, and wherein the dentifrice composition has a total water content of less than 6% by weight. wherein the dentifrice composition is a paste or gel, and wherein the dentifrice composition has a total water content of less than 6% by weight.
Hydraulic control arrangement for supplying pressure medium to a plurality of consumers (14, 16, 18), wherein a variable displacement pump is connected via pressure medium to the consumers (14, 16, 18) in each case via an adjustable supply metering orifice (48, 50) and an individual pressure compensator (52, 54) associated therewith, the individual pressure compensators (52, 54) being subjected in the opening direction to the pressure downstream of the respective supply metering orifices (48, 50) and in the closing direction to a control pressure, which is approximately equal for the individual pressure compensators (52, 54) and is adjustable via a control unit, characterized in that the individual pressure compensators (52, 54) are provided with a displacement transducer (72, 74) for detecting a lift.
A liquid heater comprising A chamber having an inlet and an outlet; and at least three electrodes within said chamber defining a plurality of adjacent channels for liquid flow from said inlet to said outlet whereby the liquid flow is divided between the channels, the spacing between the electrodes being non-uniform, the liquid being heated when it flows through the channels and a voltage is applied between electrodes, the electrodes being connected via connections to a switch matrix via which an AC electrical power from a power supply is communicated to the electrodes, the power delivered to heat the liquid between the electrodes being generally proportional to the current drawn from the power supply, characterized in that the selection of the spacing between electrodes is such that a selection of configurations of the switch matrix that yield more or less logarithmically uniformly spaced current steps can be achieved, and in that the electrodes are thinner than the width of the narrowest channel.
A side support for a postural support seat, comprising: at least one support element for exerting a force on a user sitting in the postural support seat; at least a first hinge element and at least a second hinge element forming a joint-link chain, wherein the support element is attached to a first end of the joint-link-chain; and at least one attachment element, wherein a second end of the joint-link-chain, being opposite to the first end is connected to the attachment element, and wherein the attachment element is adapted to be connected to the postural support seat characterized in that the first hinge element and/or the second hinge element comprises at least one castellation element (130a, 130b) and/or at least one serration element (170a, 170b) being arranged around at least one through hole (110a, 110b) at a location where two neighboring first and/or second hinge elements (70, 70') are contacting each other, wherein the castellation element and/or the serration element of the first or second hinge element (70, 70') is adapted to interact with a castellation element and/or serration element of the neighboring first and/or second hinge element (70, 70'), and wherein a locking pin for coupling two neighboring first and/or second hinge elements (70, 70') to each other for forming the joint-link chain is inserted in the through hole and is kept biased by spring means for keeping the castellation elements (130b, 130a') and/or serration elements (170b, in engagement. at least one support element for exerting a force on a user sitting in the postural support seat; at least a first hinge element and at least a second hinge element forming a joint-link chain, wherein the support element is attached to a first end of the joint-link-chain; and at least one attachment element, wherein a second end of the joint-link-chain, being opposite to the first end is connected to the attachment element, and wherein the attachment element is adapted to be connected to the postural support seat characterized in that the first hinge element and/or the second hinge element comprises at least one castellation element (130a, 130b) and/or at least one serration element (170a, 170b) being arranged around at least one through hole (110a, 110b) at a location where two neighboring first and/or second hinge elements (70, 70') are contacting each other, wherein the castellation element and/or the serration element of the first or second hinge element (70, 70') is adapted to interact with a castellation element and/or serration element of the neighboring first and/or second hinge element (70, 70'), and wherein a locking pin for coupling two neighboring first and/or second hinge elements (70, 70') to each other for forming the joint-link chain is inserted in the through hole and is kept biased by spring means for keeping the castellation elements (130b, 130a') and/or serration elements (170b, in engagement.
A method for transmitting, by a user equipment, UE, configured to receive signals from N nodes, where N > 1, channel state information, CSI, to a base station, BS, configured to control at least one of the N nodes, the method comprising: calculating a correlation value between the N nodes based on the following equation: R = f H 1 w 1 ̅ H 2 w 2 ̅ ⋯ H N w N ̅ H H 1 w 1 ̅ H 2 w 2 ̅ ⋯ H N w N ̅ = r 11 r 12 ⋯ r 1 M r 21 r 22 ⋯ r 2 M ⋮ ⋮ ⋱ ⋮ r M 1 r M 2 ⋯ r MM where 'f' is the function of arguments, and H ι w ι ̅ = H i w i 1 / H i w i 1 ⋯ H i w i R i / H i w i R i, where H i is a channel from i-th node, and 'w i ' is a precoder of i-th node, H i w i (k) is k-th column of H i w i, R i is a rank of i-th node and at least one of the N nodes uses a rank higher than 1, M is a total number of streams of nodes M = ∑R i, i = 1,...,N; and transmitting correlation information indicating the calculated correlation value to the BS.
A method for manufacturing a mirror device (1A, 1B, 1C, 1D) comprising a structure (2A, 2B, 2C, 2D) including a base portion and a movable portion supported on the base portion, and a mirror layer provided to the movable portion, the method comprising: a first step of preparing a wafer having a support layer; a device layer, and an intermediate layer disposed between the support layer and the device layer; a second step of forming a slit in the wafer such that the movable portion becomes movable with respect to the base portion by removing a part of each of the support layer, the device layer, and the intermediate layer from the wafer and forming a plurality of parts each corresponding to the structure in the wafer, after the first step; a third step of performing wet cleaning for cleaning the wafer using a cleaning liquid after the second step; and a fourth step of cutting out each of the plurality of parts from the wafer after the third step, wherein in the second step, a part of the intermediate layer is removed from the wafer by anisotropic etching. a first step of preparing a wafer having a support layer; a device layer, and an intermediate layer disposed between the support layer and the device layer; a second step of forming a slit in the wafer such that the movable portion becomes movable with respect to the base portion by removing a part of each of the support layer, the device layer, and the intermediate layer from the wafer and forming a plurality of parts each corresponding to the structure in the wafer, after the first step; a third step of performing wet cleaning for cleaning the wafer using a cleaning liquid after the second step; and a fourth step of cutting out each of the plurality of parts from the wafer after the third step, wherein in the second step, a part of the intermediate layer is removed from the wafer by anisotropic etching.
A brake static plate assembly comprising: a first static plate, which has: a first outer edge and a second outer edge which are adjacent to each other; a first inner edge provided with a first shaft mounting notch thereon; and a first set of coils disposed on a braking surface of the first static plate; a second static plate, which has: a third outer edge and a fourth outer edge which are adjacent to each other; a second inner edge which is matched with the first inner edge and is provided with a second shaft mounting notch which forms a shaft mounting hole of a drive shaft together with the first shaft mounting notch; and a second set of coils disposed on the braking surface of the second static plate, and a magnetic flux of the second set of coils is the same as that of the first set of coils; wherein the first inner edge forms an acute angle with the first outer edge and/or the second outer edge, and the second inner edge forms an acute angle with the third outer edge and/or the fourth outer edge. a first static plate, which has: a first outer edge and a second outer edge which are adjacent to each other; a first inner edge provided with a first shaft mounting notch thereon; and a first set of coils disposed on a braking surface of the first static plate; a first outer edge and a second outer edge which are adjacent to each other; a first inner edge provided with a first shaft mounting notch thereon; and a first set of coils disposed on a braking surface of the first static plate; a second static plate, which has: a third outer edge and a fourth outer edge which are adjacent to each other; a second inner edge which is matched with the first inner edge and is provided with a second shaft mounting notch which forms a shaft mounting hole of a drive shaft together with the first shaft mounting notch; and a second set of coils disposed on the braking surface of the second static plate, and a magnetic flux of the second set of coils is the same as that of the first set of coils; a third outer edge and a fourth outer edge which are adjacent to each other; a second inner edge which is matched with the first inner edge and is provided with a second shaft mounting notch which forms a shaft mounting hole of a drive shaft together with the first shaft mounting notch; and a second set of coils disposed on the braking surface of the second static plate, and a magnetic flux of the second set of coils is the same as that of the first set of coils; wherein the first inner edge forms an acute angle with the first outer edge and/or the second outer edge, and the second inner edge forms an acute angle with the third outer edge and/or the fourth outer edge.
An ophthalmic imaging system comprising: a first imaging subsystem configured to form a primary image of the interior of an eye through the diameter of the eye pupil; a sensor array; and a second imaging subsystem comprising a lens array configured to form an array of secondary images on the sensor array; characterised in that the optical distance between the lenses and the sensor array (b), the diameter of the lenses (d), the diameter of the eye pupil, the optical distance between the object plane to be imaged and the eye lens (e) and the minimum radius of circle required to cover the lens array with circles having the minimum radius if the circles were centred on the centres of the lenses obey the relation b d = Xe D 1 D 4 R − 1, where X ≤ 82. a first imaging subsystem configured to form a primary image of the interior of an eye through the diameter of the eye pupil; a sensor array; and a second imaging subsystem comprising a lens array configured to form an array of secondary images on the sensor array; characterised in that the optical distance between the lenses and the sensor array (b), the diameter of the lenses (d), the diameter of the eye pupil, the optical distance between the object plane to be imaged and the eye lens (e) and the minimum radius of circle required to cover the lens array with circles having the minimum radius if the circles were centred on the centres of the lenses obey the relation b d = Xe D 1 D 4 R − 1, where X ≤ 82.
A pharmaceutical composition comprising a pharmaceutically-acceptable carrier and an effective amount of a compound or a pharmaceutically acceptable salt thereof, and optionally an additional therapeutic agent, for use in the treatment or prevention of mycobacterium infection, wherein the mycobacterium is MDR M. tuberculosis or XDR M. tuberculosis and wherein said compound is a compound of Formula (c) or a compound of Formula (f): wherein, R 3, R 8 - R 12, and R 15 - R 17 are each independently selected from the group consisting of: H, halogen, hydroxy, acyl, alkyl, alkenyl, alkynyl, cycloalkyl, heterocyclo, aryl, heteroaryl, alkoxy, amino, amide, thiol, sulfone, sulfoxide, oxo, oxy, nitro, carbonyl, carboxy, amino acid sidechain, and amino acid "-Z(CH 2) n NR 13 R 14 ", wherein each group can be optionally substituted; Y is selected from CH and N Z is selected from CH 2, O, S, N; n is selected from 1 to 6; and R 13 and R 14 are each independently selected from the group consisting of H, hydroxy, acyl, alkyl, alkenyl, alkynyl, cycloalkyl, heterocyclo, aryl, heteroaryl, alkoxy, amino, amide, sulfone, sulfoxide, oxo, oxy, carbonyl, carboxy, amino acid sidechain, and amino acid, wherein each group can be optionally substituted; wherein, where said compound is a compound of Formula (c), X is selected from CH and N; and wherein, where said compound is a compound of Formula (f), X is selected from O, S, NH and NCH 3. R 3, R 8 - R 12, and R 15 - R 17 are each independently selected from the group consisting of: H, halogen, hydroxy, acyl, alkyl, alkenyl, alkynyl, cycloalkyl, heterocyclo, aryl, heteroaryl, alkoxy, amino, amide, thiol, sulfone, sulfoxide, oxo, oxy, nitro, carbonyl, carboxy, amino acid sidechain, and amino acid "-Z(CH 2) n NR 13 R 14 ", wherein each group can be optionally substituted; Y is selected from CH and N Z is selected from CH 2, O, S, N; n is selected from 1 to 6; and R 13 and R 14 are each independently selected from the group consisting of H, hydroxy, acyl, alkyl, alkenyl, alkynyl, cycloalkyl, heterocyclo, aryl, heteroaryl, alkoxy, amino, amide, sulfone, sulfoxide, oxo, oxy, carbonyl, carboxy, amino acid sidechain, and amino acid, wherein each group can be optionally substituted; wherein, where said compound is a compound of Formula (c), X is selected from CH and N; and wherein, where said compound is a compound of Formula (f), X is selected from O, S, NH and NCH 3.
A method of manufacturing a packaged solid stick antiperspirant composition, comprising: combining an antiperspirant active, one or more structurants and a surfactant to form a mixture; dispensing the mixture from a nozzle to fill a dispensing package; forming a solid stick antiperspirant composition within the dispensing package; and wherein the surfactant has a melt temperature that is greater than the crystallization onset temperature of the solid stick antiperspirant composition and wherein the antiperspirant active and the surfactant are in contact for 5 seconds or 3 seconds or less from the moment that the antiperspirant active and the surfactant and the structurant are mixed until the moment that the mixture is dispensed from the nozzle. combining an antiperspirant active, one or more structurants and a surfactant to form a mixture; dispensing the mixture from a nozzle to fill a dispensing package; forming a solid stick antiperspirant composition within the dispensing package; and wherein the surfactant has a melt temperature that is greater than the crystallization onset temperature of the solid stick antiperspirant composition and wherein the antiperspirant active and the surfactant are in contact for 5 seconds or 3 seconds or less from the moment that the antiperspirant active and the surfactant and the structurant are mixed until the moment that the mixture is dispensed from the nozzle.
A detection apparatus for detecting charged particles comprising: a secondary particle generator for generating secondary charged particles in response to receiving incoming charged particles; a charged particle detector downstream of the secondary particle generator for receiving and detecting secondary charged particles generated by the secondary particle generator and generating an output therefrom; a photon generator downstream of the charged particle detector for generating photons in response to receiving secondary charged particles generated by the secondary particle generator; and a photon detector downstream of the photon generator for detecting the photons generated by the photon generator and generating an output therefrom, wherein the charged particle detector comprises an electrode for receiving the secondary charged particles and the electrode comprises a conductive layer on the photon generator; and wherein the outputs from the charged particle detector and the photon detector are adapted for combining to form a high dynamic range mass spectrum. a secondary particle generator for generating secondary charged particles in response to receiving incoming charged particles; a charged particle detector downstream of the secondary particle generator for receiving and detecting secondary charged particles generated by the secondary particle generator and generating an output therefrom; a photon generator downstream of the charged particle detector for generating photons in response to receiving secondary charged particles generated by the secondary particle generator; and a photon detector downstream of the photon generator for detecting the photons generated by the photon generator and generating an output therefrom, wherein the charged particle detector comprises an electrode for receiving the secondary charged particles and the electrode comprises a conductive layer on the photon generator; and wherein the outputs from the charged particle detector and the photon detector are adapted for combining to form a high dynamic range mass spectrum.
A powered device for receiving power from a power sourcing equipment via a communication link (150 1,..., 150 n), the powered device comprising: - a communication unit arranged for transmitting, over the communication link (150 1,..., 150 n), a power request, - a controller unit arranged for controlling the powered device in a maximum power mode during a classification phase of said powered device, characterized in that, the powered device is arranged for determining a type information specifying support of the power sourcing equipment for autoclass, and wherein the communication unit is further arranged for selectively transmitting the power request based on the determined type information, wherein the communication unit is arranged to withhold sending the power request when the determined type information indicates support of the power sourcing equipment for autoclass. - a communication unit arranged for transmitting, over the communication link (150 1,..., 150 n), a power request, - a controller unit arranged for controlling the powered device in a maximum power mode during a classification phase of said powered device,
A memory device bitcell, comprising: a semiconductor substrate having a surface, wherein the semiconductor substrate comprises a fin and the surface comprises the top of the fin; a diffusion area on or in the surface of the semiconductor substrate; first and second vertical dielectric spacers (107, 107), at least one of those spacers being over and in contact with the diffusion area; metal deposited between and in contact with the first and second vertical dielectric spacers (107, 107), the metal also being at least partially in contact with the diffusion area; a first trench-based conductive contact that is not in contact with the diffusion area but forms an antifuse element in conjunction with the first vertical dielectric spacer and the metal; and a second trench-based conductive contact that is in contact with the diffusion area and forms a selector element in conjunction with the diffusion area and the metal. a semiconductor substrate having a surface, wherein the semiconductor substrate comprises a fin and the surface comprises the top of the fin; a diffusion area on or in the surface of the semiconductor substrate; first and second vertical dielectric spacers (107, 107), at least one of those spacers being over and in contact with the diffusion area; metal deposited between and in contact with the first and second vertical dielectric spacers (107, 107), the metal also being at least partially in contact with the diffusion area; a first trench-based conductive contact that is not in contact with the diffusion area but forms an antifuse element in conjunction with the first vertical dielectric spacer and the metal; and a second trench-based conductive contact that is in contact with the diffusion area and forms a selector element in conjunction with the diffusion area and the metal.
A compact weapon sight, comprising: a housing having a base configured to mount to a weapon; a holographic optical element, H.O.E., the H.O.E. supported by the housing; a laser diode light source being a vertical-cavity surface emitting laser, VCSEL, diode operable in use to emit a beam of light at an output wavelength when energized, the laser diode illuminating the H.O.E.; and a power source operable in use to energize the laser diode; characterized by a temperature sensor adapted for sensing a temperature of the laser diode, wherein the temperature sensor is a voltage sensor operable in use to measure a voltage of the laser diode during an off-period of a duty cycle; and an open loop wavelength controller communicating with the temperature sensor, the temperature sensor sensing and communicating the temperature of the laser diode to the wavelength controller, the wavelength controller operable in use to control a current from the power source to the laser diode, the wavelength controller adjusting in use the current based on a change in the temperature such that the output wavelength is approximately the same as a desired wavelength. a housing having a base configured to mount to a weapon; a holographic optical element, H.O.E., the H.O.E. supported by the housing; a laser diode light source being a vertical-cavity surface emitting laser, VCSEL, diode operable in use to emit a beam of light at an output wavelength when energized, the laser diode illuminating the H.O.E.; and a power source operable in use to energize the laser diode; characterized by a temperature sensor adapted for sensing a temperature of the laser diode, wherein the temperature sensor is a voltage sensor operable in use to measure a voltage of the laser diode during an off-period of a duty cycle; and an open loop wavelength controller communicating with the temperature sensor, the temperature sensor sensing and communicating the temperature of the laser diode to the wavelength controller, the wavelength controller operable in use to control a current from the power source to the laser diode, the wavelength controller adjusting in use the current based on a change in the temperature such that the output wavelength is approximately the same as a desired wavelength.