mhurhangee/patent-ind-claim-en huggingface dataset:
A connection fitting for use in conjunction with a plurality of plumbing pieces, being pipes, tubes, valves, manifolds or the like, the connection fitting including: a tubular body having: a first end being provided with means for connection to a first plumbing piece; and a second end being insertable into or receivable within a bore of a second plumbing piece, wherein the tubular body has a circumferential channel and a plurality of recesses opening into the circumferential channel and spaced at regular intervals around the circumferential channel , the circumferential channel and the recesses being capable of interacting with retaining means so that engagement between the retaining means and plurality of recesses orients the connection fitting in place in one of a number of predetermined orientations. a tubular body having: a first end being provided with means for connection to a first plumbing piece; and a second end being insertable into or receivable within a bore of a second plumbing piece, a first end being provided with means for connection to a first plumbing piece; and a second end being insertable into or receivable within a bore of a second plumbing piece, wherein the tubular body has a circumferential channel and a plurality of recesses opening into the circumferential channel and spaced at regular intervals around the circumferential channel , the circumferential channel and the recesses being capable of interacting with retaining means so that engagement between the retaining means and plurality of recesses orients the connection fitting in place in one of a number of predetermined orientations.
A band assembly comprising: a first outer connecting portion and a second outer connecting portion disposed to face each other, wherein the first outer connecting portion includes a first fastening hole and the second outer connecting portion includes a third fastening hole; an inner connecting portion disposed between the first outer connecting portion and the second outer connecting portion, wherein the inner connecting portion includes a second fastening hole that corresponds to the first fastening hole and the third fastening hole; and a rechargeable battery inserted into the first fastening hole, the second fastening hole, and the third fastening hole to connect the first outer connecting portion, the inner connecting portion, and the second outer connecting portion. a first outer connecting portion and a second outer connecting portion disposed to face each other, wherein the first outer connecting portion includes a first fastening hole and the second outer connecting portion includes a third fastening hole; an inner connecting portion disposed between the first outer connecting portion and the second outer connecting portion, wherein the inner connecting portion includes a second fastening hole that corresponds to the first fastening hole and the third fastening hole; and a rechargeable battery inserted into the first fastening hole, the second fastening hole, and the third fastening hole to connect the first outer connecting portion, the inner connecting portion, and the second outer connecting portion.
A valve module for an operating liquid container system , wherein the valve module has the following: - the valve module has a housing ; - the housing has a first port for fluidic connection to an operating liquid container interior ; - the housing has a second port for fluidic connection to a filler pipe ; and - the housing has a third port for at least indirect fluidic connection to the atmosphere; wherein the valve module exhibits the following further features: - the first port is fluidically connected, within the housing , in each case to the second port and to the third port ; - the second port is fluidically connected, within the housing , to the third port ; characterized by : - the first port and the second port and the third port are each independently of one another adjustable in each case between an open position, in which fluid communication through the respective port is made possible, and a closed position, in which fluid communication through the respective port is prevented. - the valve module has a housing ; - the housing has a first port for fluidic connection to an operating liquid container interior ; - the housing has a second port for fluidic connection to a filler pipe ; and - the housing has a third port for at least indirect fluidic connection to the atmosphere; - the first port is fluidically connected, within the housing , in each case to the second port and to the third port ; - the second port is fluidically connected, within the housing , to the third port ; - the first port and the second port and the third port are each independently of one another adjustable in each case between an open position, in which fluid communication through the respective port is made possible, and a closed position, in which fluid communication through the respective port is prevented.
Method for the determination of pollen viability and maturation grade of pollen populations: mechanically removing immature or mature pollen grains from flowers; re-suspending pollen grains in an electrically conductive, specific and well-defined buffer for keeping these plant cells to remain viable; passing the cell suspension through an appropriate filter with a pore size suitable for a microfluidic device being adapted to perform impedance flow cytometry (IFC) by providing an alternate current (AC) field with frequencies in the range between 0.1 to 600MHz, preferably from 0.1 to 200MHz, most preferably from 0.25 to 30MHz, to form a filtered suspension; passing the filtered suspension through the microfluidic device calibrated for the respective pollen type and measuring an impedance of the pollen grains at predetermined frequencies; storing the measured impedance values of each pollen grain with the amplitude value and its correlated phase angle as well as the measurement frequencies; counting the pollen grains in the filtered suspension; and discriminating the pollen grains according to the amplitude and/or phase values by manually or automatically setting an appropriate gate and determining the viable to non-viable ratio and maturation grade of the analysed pollen population. mechanically removing immature or mature pollen grains from flowers; re-suspending pollen grains in an electrically conductive, specific and well-defined buffer for keeping these plant cells to remain viable; passing the cell suspension through an appropriate filter with a pore size suitable for a microfluidic device being adapted to perform impedance flow cytometry (IFC) by providing an alternate current (AC) field with frequencies in the range between 0.1 to 600MHz, preferably from 0.1 to 200MHz, most preferably from 0.25 to 30MHz, to form a filtered suspension; passing the filtered suspension through the microfluidic device calibrated for the respective pollen type and measuring an impedance of the pollen grains at predetermined frequencies; storing the measured impedance values of each pollen grain with the amplitude value and its correlated phase angle as well as the measurement frequencies; counting the pollen grains in the filtered suspension; and discriminating the pollen grains according to the amplitude and/or phase values by manually or automatically setting an appropriate gate and determining the viable to non-viable ratio and maturation grade of the analysed pollen population.
A superconducting circuit comprising: a transmission line, the transmission line having a characteristic impedance; a superconducting resonator; a coupling capacitance that communicatively couples the superconducting resonator to the transmission line, the superconducting resonator contributing a stray capacitance to an impedance of the transmission line; and at least one inductance introduced in the transmission line to maintain the characteristic impedance of the transmission line by at least partially compensating for a variation in the impedance of the transmission line caused by the stray capacitance. a transmission line, the transmission line having a characteristic impedance; a superconducting resonator; a coupling capacitance that communicatively couples the superconducting resonator to the transmission line, the superconducting resonator contributing a stray capacitance to an impedance of the transmission line; and at least one inductance introduced in the transmission line to maintain the characteristic impedance of the transmission line by at least partially compensating for a variation in the impedance of the transmission line caused by the stray capacitance.
Method of estimation and correction, at the level of a base station , of a frequency drift (ΔF 1 , ΔF i , ΔF N ) between signals transmitted by a plurality of antenna systems (101, 102, 103, 119, 120, 121, 124, 125, 126, 127, 200, 306_1, 306_i, 306_N) spatially distributed around a computing unit of the base station and signals received by a radio device , the method comprising: a) the sending, by the radio device, of a first signal (UPLINK), said signal being received by each of the antenna systems; b) the conversion, by the antenna systems, of said first received signal into second baseband signals, and their transmission, by the antenna systems, to the computing unit; c) the measurement, by the computing unit, of angles of arrival (θ 1 , θ i , θ N ) of the second signals and of the frequency drift of the second baseband signals; d) the estimation, by the computing unit, of a displacement angle (θ M ) of the radio device, of a first frequency offset (F DOP ) induced by the displacement of the radio device, and of a second frequency offset (F CFO ) between a clock of the radio device and synchronized clocks of the antenna systems; e) the frequency adjustment and the pre-coding taking into account the obtained estimations, by the computing unit and for each of the antenna systems, of third baseband signals; and f) the transmission, by the computing unit, of the third baseband signals to the plurality of antenna systems and the transmission, by said plurality of antenna systems, of said third baseband signals to the radio device. a) the sending, by the radio device, of a first signal (UPLINK), said signal being received by each of the antenna systems; b) the conversion, by the antenna systems, of said first received signal into second baseband signals, and their transmission, by the antenna systems, to the computing unit; c) the measurement, by the computing unit, of angles of arrival (θ 1 , θ i , θ N ) of the second signals and of the frequency drift of the second baseband signals; d) the estimation, by the computing unit, of a displacement angle (θ M ) of the radio device, of a first frequency offset (F DOP ) induced by the displacement of the radio device, and of a second frequency offset (F CFO ) between a clock of the radio device and synchronized clocks of the antenna systems; e) the frequency adjustment and the pre-coding taking into account the obtained estimations, by the computing unit and for each of the antenna systems, of third baseband signals; and f) the transmission, by the computing unit, of the third baseband signals to the plurality of antenna systems and the transmission, by said plurality of antenna systems, of said third baseband signals to the radio device.
A nickel cobalt manganese composite hydroxide represented by a general formula: Ni x Co y Mn z M t (OH) 2+a (wherein x+y+z+t=1, 0.20 ≤ x ≤ 0.80, 0.10 ≤ y ≤ 0.50, 0.10 ≤ z ≤ 0.90, 0 ≤ t ≤ 0.10, 0 ≤ a ≤ 0.5, and M is at least one additive element selected from Mg, Ca, Al, Ti, V, Cr, Zr, Nb, Mo, W), the nickel cobalt manganese composite hydroxide comprising: spherical secondary particles formed by aggregation of a plurality of plate-shaped primary particles, wherein the secondary particles have an average particle diameter of 3 μm to 20 μm, a sulfate radical content of 1.0 mass% or less, a chlorine content of 0.5 mass% or less, and a carbonate radical content of 1.0 mass% to 2.5 mass%. spherical secondary particles formed by aggregation of a plurality of plate-shaped primary particles, wherein the secondary particles have an average particle diameter of 3 μm to 20 μm, a sulfate radical content of 1.0 mass% or less, a chlorine content of 0.5 mass% or less, and a carbonate radical content of 1.0 mass% to 2.5 mass%.
A method for producing an epitaxial silicon carbide single crystal wafer by allowing a silicon-based and carbon-based material gas to flow over a silicon carbide single crystal substrate surface having an off angle of 4° or less, which is an angle tilted in a <11-20> direction with respect to a plane, in order to epitaxially grow the silicon carbide by a thermal CVD method, the method comprising: forming a buffer layer, having a doping density of 1 × 10 18 atms/cm 3 or more and 1 × 10 19 atms/cm 3 or less and consisting of a silicon carbide epitaxial film having a thickness of 5 μm or more and 10 μm or less, by adjusting a ratio of a number of carbon atoms to that of silicon atoms (C/Si ratio) in the silicon-based and carbon-based material gas to 0.5 or more and 1.0 or less; forming a drift layer with the C/Si ratio of 1.0 or more and 2.0 or less, consisting of a silicon carbide epitaxial film, at a growth rate of more than 50 μm and 100 μm or less per hour; and making a depth of shallow pits observed on a surface of the drift layer to 30 nm or less, wherein the depth of the shallow pits is determined by using AFM (atomic force microscopy) to calculate the average depth of 10 shallow pits in the wafer surface. forming a buffer layer, having a doping density of 1 × 10 18 atms/cm 3 or more and 1 × 10 19 atms/cm 3 or less and consisting of a silicon carbide epitaxial film having a thickness of 5 μm or more and 10 μm or less, by adjusting a ratio of a number of carbon atoms to that of silicon atoms (C/Si ratio) in the silicon-based and carbon-based material gas to 0.5 or more and 1.0 or less; forming a drift layer with the C/Si ratio of 1.0 or more and 2.0 or less, consisting of a silicon carbide epitaxial film, at a growth rate of more than 50 μm and 100 μm or less per hour; and making a depth of shallow pits observed on a surface of the drift layer to 30 nm or less, wherein the depth of the shallow pits is determined by using AFM (atomic force microscopy) to calculate the average depth of 10 shallow pits in the wafer surface.
An endoscope apparatus comprising: a light source unit for illumination light adapted to generate illumination light used to illuminate a subject; an auxiliary measurement light-emitting unit adapted to emit auxiliary measurement light; a light source control unit adapted to allow the illumination light to be continuously emitted and to allow the auxiliary measurement light to be emitted in the form of a pulse at a specific frame interval; an imaging element adapted to image the subject; a signal processing unit adapted to generate a first taken image obtained through the imaging of the subject illuminated with only the illumination light and generates a second taken image obtained through the imaging of the subject illuminated with the illumination light and the auxiliary measurement light; and a display control unit ; characterized in that the display control unit is adapted to allow a display unit to display a specific image where a measurement marker obtained from the second taken image is displayed in the first taken image. a light source unit for illumination light adapted to generate illumination light used to illuminate a subject; an auxiliary measurement light-emitting unit adapted to emit auxiliary measurement light; a light source control unit adapted to allow the illumination light to be continuously emitted and to allow the auxiliary measurement light to be emitted in the form of a pulse at a specific frame interval; an imaging element adapted to image the subject; a signal processing unit adapted to generate a first taken image obtained through the imaging of the subject illuminated with only the illumination light and generates a second taken image obtained through the imaging of the subject illuminated with the illumination light and the auxiliary measurement light; and a display control unit ; characterized in that the display control unit is adapted to allow a display unit to display a specific image where a measurement marker obtained from the second taken image is displayed in the first taken image.
A sealing assembly for forming an at least partial seal with a ground surface under a vehicle , the sealing assembly comprising: a frame ; and a plurality of seal elements mounted adjacent to one another on the frame to form a sealing strip, wherein each of the plurality of seal elements is arranged to contact the ground surface and slide along the ground surface; characterised in that the frame has a greater flexibility in a direction normal to the ground surface compared to each of the plurality of seal elements, such that the frame is more easily bendable in the direction normal to the ground surface compared to each of the plurality of seal elements. a frame ; and a plurality of seal elements mounted adjacent to one another on the frame to form a sealing strip, wherein each of the plurality of seal elements is arranged to contact the ground surface and slide along the ground surface; characterised in that the frame has a greater flexibility in a direction normal to the ground surface compared to each of the plurality of seal elements, such that the frame is more easily bendable in the direction normal to the ground surface compared to each of the plurality of seal elements.
A composition comprising VX-745 for use in promoting recovery of function in a subject that has suffered a neurologic injury, the use comprising administering said composition to the subject, wherein the neurologic injury results from an acute ischemic stroke, wherein the stroke is a thrombotic stroke; or wherein the stroke is an embolic stroke, and wherein the step of administering is initiated at or greater than 24 hours after onset of stroke symptoms; or wherein the step of administering is initiated at or greater than 48 hours after onset of stroke symptoms; or wherein the step of administering is initiated at or greater than 72 hours after onset of stroke symptoms. wherein the neurologic injury results from an acute ischemic stroke, wherein the stroke is a thrombotic stroke; or wherein the stroke is an embolic stroke, and wherein the step of administering is initiated at or greater than 24 hours after onset of stroke symptoms; or wherein the step of administering is initiated at or greater than 48 hours after onset of stroke symptoms; or wherein the step of administering is initiated at or greater than 72 hours after onset of stroke symptoms.
A system for performing robotically-assisted surgery, comprising: an x-ray imaging device comprising an x-ray source and an x-ray detector mounted to a support structure such that at least one of the x-ray source and the x-ray detector is configured to rotate with respect to the support structure to obtain x-ray images from different projection angles relative to an object being imaged, and a robotic arm having a first end configured to extend into an imaging area between the source and the detector and a second end attached to the support structure wherein the imaging device comprises a generally O-shaped imaging gantry (40; 1401) containing the x-ray source and the x-ray detector and the imaging gantry (40; 1401) is configured to tilt with respect to the support structure and the second end of the robotic arm , characterized in that the system further comprises at least one camera for a motion tracking system mounted to the support structure or the imaging gantry (40; 1401); and a support member (1300; 1407) extending from the support structure over at least a portion of an outer circumference of the imaging gantry (40; 1401), wherein the second end of the robotic arm is mounted to said support member (1300; 1407) and is movable to multiple positions on said support member (1300; 1407). an x-ray imaging device comprising an x-ray source and an x-ray detector mounted to a support structure such that at least one of the x-ray source and the x-ray detector is configured to rotate with respect to the support structure to obtain x-ray images from different projection angles relative to an object being imaged, and a robotic arm having a first end configured to extend into an imaging area between the source and the detector and a second end attached to the support structure wherein the imaging device comprises a generally O-shaped imaging gantry (40; 1401) containing the x-ray source and the x-ray detector and the imaging gantry (40; 1401) is configured to tilt with respect to the support structure and the second end of the robotic arm , characterized in that the system further comprises at least one camera for a motion tracking system mounted to the support structure or the imaging gantry (40; 1401); and a support member (1300; 1407) extending from the support structure over at least a portion of an outer circumference of the imaging gantry (40; 1401), wherein the second end of the robotic arm is mounted to said support member (1300; 1407) and is movable to multiple positions on said support member (1300; 1407).
A method comprising the step of: allocating, by a transmitter, a resource being a unit for data allocation in a combination of time and frequency domains of radio resources, the resource is allocated from resource candidates that were selected by the transmitter; and transmitting, by the transmitter, dedicated control information, DCI, destined for a receiver on the allocated resource, characterized in that the DCI includes modulation and coding information related to a data packet transmitted on a shared data channel, SDCH, destined for the receiver from the transmitter, and wherein the allocated resource includes a control region and a data region, and wherein the DCI is located in a data region that follows the control region in a time domain. allocating, by a transmitter, a resource being a unit for data allocation in a combination of time and frequency domains of radio resources, the resource is allocated from resource candidates that were selected by the transmitter; and transmitting, by the transmitter, dedicated control information, DCI, destined for a receiver on the allocated resource, characterized in that the DCI includes modulation and coding information related to a data packet transmitted on a shared data channel, SDCH, destined for the receiver from the transmitter, and wherein the allocated resource includes a control region and a data region, and wherein the DCI is located in a data region that follows the control region in a time domain.