mhurhangee/patent-ind-claim-en huggingface dataset:
An aramid paper prepared by applying a second mixture comprising an aramid floc and an aramid pulp comprising 20 wt% or more fines on one or more of the top portion and the bottom portion of a substrate paper formed of a first mixture comprising an aramid floc and an aramid pulp having a length of 0.5-0.8 mm and a freeness of 150-250 mL and binding the same by calendering, wherein the aramid pulp comprising 20 wt% or more fines is prepared by beating an aramid floc mixture of 10-20 wt% of a floc having a length equal to or longer than 3 mm and shorter than 6 mm and 80-90 wt% of a floc having a length equal to or longer than 6 mm and equal to or shorter than 8 mm with a beater equipped with a refiner.
A dental assembly comprising an abutment with a longitudinal axis, a sidewall , and comprising a cavity along the longitudinal axis and a slot in the sidewall adapted to allow a driver to access a screw in the cavity at an angle relative to the longitudinal axis; a prosthesis having a driver access channel , the driver access channel having an opening on at least one surface of the prosthesis, the prosthesis placed over the abutment such that the driver access channel of the prosthesis and the slot in the sidewall of the abutment overlap; and a screw within the cavity of the abutment , characterized in that the screw is not passable through the driver access channel and is contained within the cavity of the abutment . an abutment with a longitudinal axis, a sidewall , and comprising a cavity along the longitudinal axis and a slot in the sidewall adapted to allow a driver to access a screw in the cavity at an angle relative to the longitudinal axis; a prosthesis having a driver access channel , the driver access channel having an opening on at least one surface of the prosthesis, the prosthesis placed over the abutment such that the driver access channel of the prosthesis and the slot in the sidewall of the abutment overlap; and a screw within the cavity of the abutment , characterized in that the screw is not passable through the driver access channel and is contained within the cavity of the abutment .
A thermoelectric element, element , comprising: a cold end ; a hot end ; and a p-type or n-type material having a length between the hot end and the cold end and having spatially varying properties defining a Seebeck coefficient ( S ), an electrical resistivity ( ρ ), and a thermal conductivity ( λ ), characterised in that each of two or more of S, ρ, and λ increases between the cold end and the hot end, and wherein the increases in each of two or more of S, ρ, and λ are selected such that at maximum coefficient of performance (COP), a curve describing the temperature increase between the cold end and the hot end is concave. a cold end ; a hot end ; and a p-type or n-type material having a length between the hot end and the cold end and having spatially varying properties defining a Seebeck coefficient ( S ), an electrical resistivity ( ρ ), and a thermal conductivity ( λ ), characterised in that each of two or more of S, ρ, and λ increases between the cold end and the hot end, and wherein the increases in each of two or more of S, ρ, and λ are selected such that at maximum coefficient of performance (COP), a curve describing the temperature increase between the cold end and the hot end is concave.
A compound for facilitating drug delivery to a target cell, consisting of the structure (retinoid) m -linker-(retinoid) n ; wherein the retinoid is selected from the group consisting of vitamin A, retinoic acid, tretinoin, adapalene, 4-hydroxy(phenyl)retinamide (4-HPR), retinyl palmitate, retinal, saturated retinoic acid, and saturated, demethylated retinoic acid; wherein m and n are independently 2 or 3; and wherein the linker is selected from the group consisting of bis-amido-PEG, tris-amido-PEG, tetra-amido-PEG, Lys-bis-amido-PEG-Lys, Lys-tris-amido-PEG-Lys, Lys-tetra-amido-PEG-Lys, Lys-PEG-Lys, PEG2000, PEG1250, PEG1000, PEG750, PEG550, and PEG-Glu.
An impedance measurement system for performing a bioimpedance measurement on a biological subject, the system including: a) a signal generator configured to apply alternating signals to at least part of the biological subject at a plurality of different frequencies; b) a sensor configured to measure response signals from the biological subject; and, c) one or more electronic processing devices that: i) determine the bioimpedance measurement as a plurality of impedance values obtained at the plurality of different frequencies using the measured response signals; ii) calculate an impedance curve using a curve fitting algorithm; iii) determine a deviation of the impedance curve from the plurality of impedance values of the bioimpedance measurement; and, iv) use the deviation to perform an evaluation of the bioimpedance measurement characterised in that evaluation of the bioimpedance measurement is used to categorise the bioimpedance measurement and derive an indicator indicative of the measurement categorisation. a) a signal generator configured to apply alternating signals to at least part of the biological subject at a plurality of different frequencies; b) a sensor configured to measure response signals from the biological subject; and, c) one or more electronic processing devices that: i) determine the bioimpedance measurement as a plurality of impedance values obtained at the plurality of different frequencies using the measured response signals; ii) calculate an impedance curve using a curve fitting algorithm; iii) determine a deviation of the impedance curve from the plurality of impedance values of the bioimpedance measurement; and, iv) use the deviation to perform an evaluation of the bioimpedance measurement characterised in that evaluation of the bioimpedance measurement is used to categorise the bioimpedance measurement and derive an indicator indicative of the measurement categorisation. i) determine the bioimpedance measurement as a plurality of impedance values obtained at the plurality of different frequencies using the measured response signals; ii) calculate an impedance curve using a curve fitting algorithm; iii) determine a deviation of the impedance curve from the plurality of impedance values of the bioimpedance measurement; and, iv) use the deviation to perform an evaluation of the bioimpedance measurement characterised in that evaluation of the bioimpedance measurement is used to categorise the bioimpedance measurement and derive an indicator indicative of the measurement categorisation.
A lighting device for simultaneously providing functional lighting for illuminating a space and a dynamic sparkling or glittering effect, wherein the lighting device comprises an exposed outer surface and a plurality of primary light sources disposed within a chamber , wherein the chamber has an internal surface arrangement including at least a first surface portion and an opposing second surface portion, the first surface portion being a mounting surface portion , the plurality of primary light sources comprising LEDs that are mounted to the mounting surface portion , the second surface portion being translucent and delimiting a plurality of light exit areas having a higher transmittance than the second surface portion, wherein the plurality of light exit areas comprises a first pattern of light exit areas, the plurality of primary light sources comprises a second pattern of primary light sources, the second pattern of primary light sources being different to the first pattern of light exit areas, and wherein the plurality of primary light sources is arranged to illuminate the plurality of light exit areas delimited by the translucent second surface portion in order to create a plurality of secondary light sources located on the exposed outer surface of the lighting device , each of the plurality of secondary light sources having a light-emitting surface with an anisotropic luminance, characterized in that the plurality of primary light sources comprises at least a first subset of primary light sources and a second subset of primary light sources, the first subset of primary light sources being configured to emit light that is directly incident at one or more of the plurality of light exit areas , and the second subset of primary light sources being configured to emit light that is not directly incident at any of the plurality of light exit areas .
Method for connecting an electrical power supply connector to an electrical outlet of a vehicle comprising an electrically rechargeable battery, said power supply connector comprising a body and at least one first mobile magnetization surface that is able to move relative to said body , the method comprising at least the steps of: - bringing said at least one first mobile magnetization surface of the connector into magnetic contact with at least one first complementary magnetization surface of the electrical outlet , by moving said at least one mobile magnetization surface relative to said body , - engaging the connector in the electrical outlet by moving the body relative to the first mobile magnetization surface in such a way as to make electrical contact between the connector and the electrical outlet . - bringing said at least one first mobile magnetization surface of the connector into magnetic contact with at least one first complementary magnetization surface of the electrical outlet , by moving said at least one mobile magnetization surface relative to said body , - engaging the connector in the electrical outlet by moving the body relative to the first mobile magnetization surface in such a way as to make electrical contact between the connector and the electrical outlet .
A method comprising: receiving , in a first local traffic analysis module , configuration parameters from a second local traffic analysis module or from a central traffic analysis module connected to a plurality of local traffic analysis modules; monitoring , by the first local traffic analysis module by using the received configuration parameters, traffic in a radio access network of a wireless communication system; detecting , by the first local traffic analysis module , in the monitored traffic on the basis of the configuration parameters, an anomaly causing a control plane signalling load; in response to said detecting, taking , by the first local traffic analysis module , an action to mitigate the anomaly and reporting information on the anomaly to the central traffic analysis module ; and identifying, by the first local traffic analysis module , a device causing said anomaly on the basis of at least one message of the monitored traffic; characterized by the method further comprising: routing, by the first local traffic analysis module , at least some of traffic associated with the identified device to the central traffic analysis module . receiving , in a first local traffic analysis module , configuration parameters from a second local traffic analysis module or from a central traffic analysis module connected to a plurality of local traffic analysis modules; monitoring , by the first local traffic analysis module by using the received configuration parameters, traffic in a radio access network of a wireless communication system; detecting , by the first local traffic analysis module , in the monitored traffic on the basis of the configuration parameters, an anomaly causing a control plane signalling load; in response to said detecting, taking , by the first local traffic analysis module , an action to mitigate the anomaly and reporting information on the anomaly to the central traffic analysis module ; and identifying, by the first local traffic analysis module , a device causing said anomaly on the basis of at least one message of the monitored traffic; characterized by the method further comprising: routing, by the first local traffic analysis module , at least some of traffic associated with the identified device to the central traffic analysis module .
An electronic device comprising circuitry configured to: communicate with mobile communications devices via a plurality of resource elements across a first range of system resource blocks, wherein the plurality of resource elements comprise a host carrier; transmit data to a first group of mobile communications devices , wherein the data is distributed within the plurality of resource elements across the first range of system resource blocks; provide a virtual carrier including one or more resource elements across a second range of system resource blocks which is within and smaller than the first range, wherein the circuitry is further configured to provide on one or more resource elements a virtual carrier signal indicating whether or not the host carrier provides a virtual carrier; and transmit data for a second group of mobile communications devices via the virtual carrier, wherein the second range of system resource blocks includes fewer than one hundred resource blocks. communicate with mobile communications devices via a plurality of resource elements across a first range of system resource blocks, wherein the plurality of resource elements comprise a host carrier; transmit data to a first group of mobile communications devices , wherein the data is distributed within the plurality of resource elements across the first range of system resource blocks; provide a virtual carrier including one or more resource elements across a second range of system resource blocks which is within and smaller than the first range, wherein the circuitry is further configured to provide on one or more resource elements a virtual carrier signal indicating whether or not the host carrier provides a virtual carrier; and transmit data for a second group of mobile communications devices via the virtual carrier, wherein the second range of system resource blocks includes fewer than one hundred resource blocks.
A drill whose leading end portion is flat and has at least two cutting blades extending from a rotation center toward outside in a radial direction, each of the cutting blades including an arc-shaped portion formed in an arc shape, an inside linear portion formed in a linear shape and connecting to one end of the arc-shaped portion on the rotation center side, and an outside linear portion formed in a linear shape and connecting to another end of the arc-shaped portion on an opposite side to the one end, characterized in that the arc-shaped portion has a cutting edge provided with an arc-shaped portion chamfered surface that is chamfered, and the inside linear portion and the outside linear portion each have a cutting edge provided with a linear portion chamfered surface that is chamfered, a drill axis direction width (L2) of the arc-shaped portion chamfered surface is smaller than a drill axis direction width (L1) of the linear portion chamfered surface the drill axis direction width (L1) of the linear portion chamfered surface is within a range of 0. 12 to 1. 4 percent of a drill diameter, and the drill axis direction width (L2) of the arc-shaped portion chamfered surface is equal to or less than 0.008 mm. the arc-shaped portion has a cutting edge provided with an arc-shaped portion chamfered surface that is chamfered, and the inside linear portion and the outside linear portion each have a cutting edge provided with a linear portion chamfered surface that is chamfered, a drill axis direction width (L2) of the arc-shaped portion chamfered surface is smaller than a drill axis direction width (L1) of the linear portion chamfered surface the drill axis direction width (L1) of the linear portion chamfered surface is within a range of 0. 12 to 1. 4 percent of a drill diameter, and the drill axis direction width (L2) of the arc-shaped portion chamfered surface is equal to or less than 0.008 mm.
A door control device , comprising - a holding device for holding a door in a predefined position, - a position unit for sending out a status signal, if the door is not in the predefined position, and - a deactivating device for deactivating the holding device upon receipt of the status signal, - characterized by a signal transmitter , which comprises at least one smoke alarm and/or at least one fire alarm, wherein the signal transmitter is formed for generating an activating signal, wherein the holding device is adapted to release the door upon receiving the activating signal, and wherein the deactivating device additionally is formed for deactivating the signal transmitter . - a holding device for holding a door in a predefined position, - a position unit for sending out a status signal, if the door is not in the predefined position, and - a deactivating device for deactivating the holding device upon receipt of the status signal, - characterized by a signal transmitter , which comprises at least one smoke alarm and/or at least one fire alarm, wherein the signal transmitter is formed for generating an activating signal, wherein the holding device is adapted to release the door upon receiving the activating signal, and wherein the deactivating device additionally is formed for deactivating the signal transmitter .
A method of filtering an audio signal, the method comprising implementing on a digital signal processing device the steps of: specifying a target magnitude frequency response H T ( f ) of frequency f in terms of a column vector l of K weights l k where log H T ( f ) = l T W ( f ) and W ( f ) is a column vector of K magnitude basis functions W k ( f ), said step of specifying comprising dynamically altering the target magnitude frequency response according to a user preference or according to an operation of a computational auditory perception model; computing a constrained frequency response H C ( f ) defined by log H C ( f ) = g T V ( f ), where V ( f ) is a column vector of N constrained basis functions V n ( f ) for which each exp g n V n ( f ) satisfies a constraint preserved by concatenation of each exp g n V n ( f ) by multiplication, and g is a column vector of N coefficients satisfying a matching criterion between l T W ( f ) and g T V ( f ) , said step of computing comprising dynamically updating computation of the constrained frequency response following the dynamic alteration of the target magnitude frequency response; receiving an input audio signal; filtering the input audio signal with the constrained frequency response H C ( f ) to form a filtered audio signal; and outputting the filtered audio signal. specifying a target magnitude frequency response H T ( f ) of frequency f in terms of a column vector l of K weights l k where log H T ( f ) = l T W ( f ) and W ( f ) is a column vector of K magnitude basis functions W k ( f ), said step of specifying comprising dynamically altering the target magnitude frequency response according to a user preference or according to an operation of a computational auditory perception model; computing a constrained frequency response H C ( f ) defined by log H C ( f ) = g T V ( f ), where V ( f ) is a column vector of N constrained basis functions V n ( f ) for which each exp g n V n ( f ) satisfies a constraint preserved by concatenation of each exp g n V n ( f ) by multiplication, and g is a column vector of N coefficients satisfying a matching criterion between l T W ( f ) and g T V ( f ) , said step of computing comprising dynamically updating computation of the constrained frequency response following the dynamic alteration of the target magnitude frequency response; receiving an input audio signal; filtering the input audio signal with the constrained frequency response H C ( f ) to form a filtered audio signal; and outputting the filtered audio signal.
A method for removing keratotic plugs, comprising using a composition comprising 0.8 mass% or more and 20 mass% or less of (A) arginine and (B) an anionic surfactant comprising (B1) an anionic surfactant having a carboxylic acid group; wherein a mass ratio of a content of the component (A) to a content of the component (B1), (A)/(B1), is 1 or more and 100 or less and the composition has a pH of 8.0 or more and 12.5 or less at 25°C. 0.8 mass% or more and 20 mass% or less of (A) arginine and (B) an anionic surfactant comprising (B1) an anionic surfactant having a carboxylic acid group; wherein a mass ratio of a content of the component (A) to a content of the component (B1), (A)/(B1), is 1 or more and 100 or less and the composition has a pH of 8.0 or more and 12.5 or less at 25°C.
6-amino-9-[ -1-(2-butynoyl)-3-pyrrolidinyl]-7-(4-phenoxyphenyl)-7,9-dihydro-8H-purin-8-one, a salt thereof, a solvate thereof, or an N-oxide thereof, for use in preventing and/or treating CD79B wild-type activated B cell-like diffuse large B-cell lymphoma in a human.
Apparatus for identification of tissue carriers of human or animal tissue that are grouped in a batch , wherein the apparatus comprises: - a working area for receiving the batch of at least two tissue carriers ; - a presence sensor for detecting the physical presence of each of the tissue carriers of the batch received at the working area ; and - an identification device for detecting a unique identifier of each of the tissue carriers of the batch received at the working area ; characterized in that the apparatus further comprises - a control unit being configured to identify as identified positions positions of the working area , at which a tissue carrier is detected to be present but at which no unique identifier is detected to be present, and the control unit being further configured to identify as identified positions positions of the working area , at which a unique identifier is detected to be present but at which no tissue carrier is detected to be present, wherein the control unit is further configured to provide information that there is a potential mismatch between the data regarding the presence of the tissue carrier and the data regarding the unique identifier of the tissue carrier . - a working area for receiving the batch of at least two tissue carriers ; - a presence sensor for detecting the physical presence of each of the tissue carriers of the batch received at the working area ; and - an identification device for detecting a unique identifier of each of the tissue carriers of the batch received at the working area ; - a control unit being configured to identify as identified positions positions of the working area , at which a tissue carrier is detected to be present but at which no unique identifier is detected to be present, and the control unit being further configured to identify as identified positions positions of the working area , at which a unique identifier is detected to be present but at which no tissue carrier is detected to be present,