mhurhangee/patent-ind-claim-en huggingface dataset:
A portable audio networking system, comprising: a power source ; a master device configured to receive a digital audio signal, receive a DC power from the power source , provide the DC power, and transceive a data signal with a plurality of slave devices ; the plurality of slave devices in communication with the master device , wherein each of the plurality of slave devices is configured to transmit a digital audio signal to the master device, receive the DC power from the master device, and transceive a data signal with the master device; a plurality of first cables for connecting the master device and the plurality of slave devices , wherein the master device and the plurality of slave devices are in communication over the plurality of first cables adapted to simultaneously transport a digital audio signal, the DC power, and a data signal; and an audio device comprising one or more of an audio recorder and an audio mixer, wherein the master device is a gateway interconnection device and is further in communication with the audio device via a second cable , wherein the gateway interconnection device is configured to generate a combined digital audio signal based on the digital audio signals from the plurality of slave devices , and via the second cable , transmit the combined digital audio signal to the audio device , provide the DC power to the audio device and transceive the data signal with the audio device. a power source ; a master device configured to receive a digital audio signal, receive a DC power from the power source , provide the DC power, and transceive a data signal with a plurality of slave devices ; the plurality of slave devices in communication with the master device , wherein each of the plurality of slave devices is configured to transmit a digital audio signal to the master device, receive the DC power from the master device, and transceive a data signal with the master device; a plurality of first cables for connecting the master device and the plurality of slave devices , wherein the master device and the plurality of slave devices are in communication over the plurality of first cables adapted to simultaneously transport a digital audio signal, the DC power, and a data signal; and an audio device comprising one or more of an audio recorder and an audio mixer, wherein the master device is a gateway interconnection device and is further in communication with the audio device via a second cable , wherein the gateway interconnection device is configured to generate a combined digital audio signal based on the digital audio signals from the plurality of slave devices , and via the second cable , transmit the combined digital audio signal to the audio device , provide the DC power to the audio device and transceive the data signal with the audio device.
A particle comprising a plurality of lithium nickel oxide crystallites having a layered alpha-NaFeO2-type structure and a grain boundary between adjacent crystallites, wherein the grain boundary is on the surface of the crystallite and comprises a second composition comprising a Co-substituted lithium nickel oxide having a layered alpha-NaFeO2-type structure, a cubic structure or a combination thereof, and wherein the concentration of cobalt in the grain boundaries is greater than a concentration of cobalt in the crystallites.
An agricultural working machine for executing an agricultural operating procedure, with a plurality of working units and with a driver assistance system for controlling the working units in order to fulfil at least one sensor-detectable quality criterion (Q1, Q2, Q3, Q4, Q5) of the operating procedure, wherein by means of the driver assistance system , specific setting parameters for controlling the working units can be preset in order to satisfy the at least one quality criterion (Q1, Q2, Q3, Q4, Q5) of the operating procedure, wherein the driver assistance system comprises a memory for storing data and a computing device for processing the data stored in the memory , wherein the driver assistance system has a graphical user interface by means of which a respective degree of fulfilment of the at least one quality criterion (Q1, Q2, Q3, Q4, Q5) can be changed, characterized in that the driver assistance system and the graphical user interface are configured such that, on the basis of a change to the degree of fulfilment of the at least one quality criterion (Q1, Q2, Q3, Q4, Q5), effects on other quality criteria (Q1, Q2, Q3, Q4, Q5) which can be expected can be determined by the driver assistance system and in that with the change in the degree of fulfilment, that quality criterion (Q2) or those quality criteria (Q1, Q2) for which a deterioration is expected on the basis of a change to the degree of fulfilment is or are visually highlighted by means of the graphical user interface .
A processor comprising: a decoder to decode an instruction into a decoded instruction, the instruction comprising a first field that indicates an instruction pointer to a user-level event handler; and an execution unit to execute the decoded instruction to, after a swap of an instruction pointer that indicates where an event occurred from a current instruction pointer register into a user-level event handler pointer register , push the instruction pointer that indicates where the event occurred onto call stack storage , and change a current instruction pointer in the current instruction pointer register to the instruction pointer to the user-level event handler. a decoder to decode an instruction into a decoded instruction, the instruction comprising a first field that indicates an instruction pointer to a user-level event handler; and an execution unit to execute the decoded instruction to, after a swap of an instruction pointer that indicates where an event occurred from a current instruction pointer register into a user-level event handler pointer register , push the instruction pointer that indicates where the event occurred onto call stack storage , and change a current instruction pointer in the current instruction pointer register to the instruction pointer to the user-level event handler.
Vegetable fiber sponge for domestic use, wherein it is a cylindrical body permanently attached at its ends and that said sponge has at least three internal cavities and is composed of compact and entangled vegetable fibers that are randomly linked together, which have a thickness of between 0.015 mm and 0.10 mm and have a separation between 0.10 millimeters and 0.35 millimeters.
A system for digitizing components of a vehicle , the system comprising: a 3-dimensional sensing system operatively arranged to monitor a human-machine interface component including an operator engageable component of the vehicle, the operator engageable component for controlling a controlled device of the vehicle, the 3-dimensional sensing system including at least one remote sensing device capable of detecting a position or status of the human-machine interface component ; and a controller arranged to receive sensed data from the 3-dimensional sensing system ; wherein the controller processes the sensed data to assign a digital value that is used to recognize the position or status of the human-machine interface component and corresponds to a directed condition of the controlled device and outputs a signal indicative of a condition of the human-machine interface component , the controlled device controlled by the condition of the human-machine interface component . a 3-dimensional sensing system operatively arranged to monitor a human-machine interface component including an operator engageable component of the vehicle, the operator engageable component for controlling a controlled device of the vehicle, the 3-dimensional sensing system including at least one remote sensing device capable of detecting a position or status of the human-machine interface component ; and a controller arranged to receive sensed data from the 3-dimensional sensing system ; wherein the controller processes the sensed data to assign a digital value that is used to recognize the position or status of the human-machine interface component and corresponds to a directed condition of the controlled device and outputs a signal indicative of a condition of the human-machine interface component , the controlled device controlled by the condition of the human-machine interface component .
End element for a curtain support rod, comprising a first base , a second base and a side surface of connection between said first base and said second base , said first base and said second base being parallel and coaxial with each other, said first base comprising coupling means with one end of a curtain support rod and said second base being shaped like a flat surface, said end element being characterised in that it comprises, on the lateral edge of said second base , a tooth protruding axially with respect to said second base .
A method for manufacturing lithium metal phosphate (LMP) having the following Formula I, the method comprising: providing a crystalline iron phosphate salt in a slurry phase or a cake phase, wherein the crystalline iron phosphate salt has a (meta)strengite structure; mixing a lithium raw material with the crystalline iron phosphate salt in the slurry phase or the cake phase to form a mixture, wherein the crystalline iron phosphate salt is in the state of not having been subjected to a drying process, and wherein the lithium raw material is selected from the group consisting of LiOH, Li 2 CO 3 and LiCI; and heat-treating the mixture: Formula I LiM 1-n Fe n PO 4 here, M is selected from the group consisting of Ni, Co, Mn, Cr, Zr, Nb, Cu, V, Ti, Zn, Al, Ga and Mg, and 0 < n ≤ 1. providing a crystalline iron phosphate salt in a slurry phase or a cake phase, wherein the crystalline iron phosphate salt has a (meta)strengite structure; mixing a lithium raw material with the crystalline iron phosphate salt in the slurry phase or the cake phase to form a mixture, wherein the crystalline iron phosphate salt is in the state of not having been subjected to a drying process, and wherein the lithium raw material is selected from the group consisting of LiOH, Li 2 CO 3 and LiCI; and heat-treating the mixture: Formula I LiM 1-n Fe n PO 4 here, M is selected from the group consisting of Ni, Co, Mn, Cr, Zr, Nb, Cu, V, Ti, Zn, Al, Ga and Mg, and 0 < n ≤ 1.
A sealing cushion for a respiratory mask assembly, the sealing cushion comprising a patient interface portion having a resiliently deformable sealing membrane for engagement with a patient's face, and an aperture formed therein for receiving a nasal and/or mouth region of a patient's face, the sealing membrane comprising a plurality of regions of different thicknesses, the plurality of regions comprising: a compliant nasal region for engagement with the patient's nasal bridge; nasal support regions disposed either side of the compliant nasal region for engagement with the sides of the patient's nose; cheek support regions extending from each of the nasal support regions for engagement at least with the patient's cheeks; a compliant base region extending between the cheek support regions , and a compliant inner member extending around substantially all of the aperture in the patient interface portion , wherein the sealing membrane in the compliant nasal region , the compliant base region and the compliant inner member has a lower thickness than in the cheek support regions and the nasal support regions . a compliant nasal region for engagement with the patient's nasal bridge; nasal support regions disposed either side of the compliant nasal region for engagement with the sides of the patient's nose; cheek support regions extending from each of the nasal support regions for engagement at least with the patient's cheeks; a compliant base region extending between the cheek support regions , and a compliant inner member extending around substantially all of the aperture in the patient interface portion , wherein the sealing membrane in the compliant nasal region , the compliant base region and the compliant inner member has a lower thickness than in the cheek support regions and the nasal support regions .
Manhole cover (T) for a tank , in particular in the beverage filling industry, comprising a splash lance for spraying a cleaning medium passing the splash lance in a substantially axial main stream at least through spraying bores provided in the splash lance , and at least one spraying head provided at the splash lance , wherein the spraying bores are formed as spraying nozzles (S) for internally cleaning the manhole cover (T) within at least one nozzle body (R) integrated into the splash lance , the nozzle body (R) having a surface arrangement (F) contacted inside by the mainstream, the surface arrangement (F) allowing to generate turbulent flowing conditions in the region of the spraying nozzles (S), characterized in that the surface arrangement (F) comprises an undercut annular space open towards the interior of the nozzle body (R) and in the direction of the main stream downstream of the annular space a catching collar oriented crosswise to the direction and protruding in relation to the inner diameter of the splash lance , the catching collar being formed either with single catching vanes distributed with intermediate distances in circumferential direction, or continuously in circumferential direction.
A matrix in ball form comprising cross-linked fibrinogen, characterized in that it is free from fibrin.
An assembly comprising: a stamped aperture assembly and a photosensor system including an infrared (IR) component , the infrared (IR) component comprising at least one of an infrared radiation-emitting component and an infrared radiation-detecting component , the stamped aperture assembly securing the IR component and comprising: a thin, opaque, flexible, elongated sheet of plastic having at least one fold line and configured to wrap around the IR component ; an aperture window to focus infrared radiation of the photosensor system; a locking system to attach the stamped aperture assembly ; and an alignment system to direct the infrared radiation through the aperture window , wherein the alignment system comprises a locator slot in the thin, opaque, flexible, elongated sheet of plastic centered along the longitudinal midline of the sheet and sized to receive an edge intersection of a pin-opposite face of the IR component and a sensor-opposite face of the IR component, so that if the edge intersection is received by the locator slot and the locking system is engaged, the aperture window is aligned over the sensor of the IR component. a stamped aperture assembly and a photosensor system including an infrared (IR) component , the infrared (IR) component comprising at least one of an infrared radiation-emitting component and an infrared radiation-detecting component , the stamped aperture assembly securing the IR component and comprising: a thin, opaque, flexible, elongated sheet of plastic having at least one fold line and configured to wrap around the IR component ; an aperture window to focus infrared radiation of the photosensor system; a locking system to attach the stamped aperture assembly ; and an alignment system to direct the infrared radiation through the aperture window , a thin, opaque, flexible, elongated sheet of plastic having at least one fold line and configured to wrap around the IR component ; an aperture window to focus infrared radiation of the photosensor system; a locking system to attach the stamped aperture assembly ; and an alignment system to direct the infrared radiation through the aperture window ,
A tabletop apparatus for video conferencing , comprising: a camera for capturing video frames of local participants situated around the tabletop apparatus in a video conference; a cylindrical display for displaying video feeds on a surface around a center point of the cylindrical display, wherein the cylindrical display is physically coupled to the camera; and controls that are configured to perform operations for video conferencing, wherein the controls are physically coupled to the camera and the cylindrical display, characterized in that the display physically rotates automatically at a predetermined rate or the video feeds are rotated around the cylindrical display programmatically such that a local participant eventually sees all 360 degrees of the display. a camera for capturing video frames of local participants situated around the tabletop apparatus in a video conference; a cylindrical display for displaying video feeds on a surface around a center point of the cylindrical display, wherein the cylindrical display is physically coupled to the camera; and controls that are configured to perform operations for video conferencing, wherein the controls are physically coupled to the camera and the cylindrical display, characterized in that the display physically rotates automatically at a predetermined rate or the video feeds are rotated around the cylindrical display programmatically such that a local participant eventually sees all 360 degrees of the display.
A diffraction grating , comprising: a plurality of different diffracting zones (108A-1...108A-n, 108B-1... 108B-n, 148A-1...148B-n, 154A-1, 154A-2, 164A-1, 164A-2, 198-1...198-n, 208-1, 208-2) having a periodically repeating lateral dimension corresponding to a grating period adapted for light diffraction; and a plurality of different liquid crystal layers (116A-1... 116B-n, 144A-1...144B-2, 156A-1...156C-2, 186-1...186-n, 196-1, 196-2) corresponding to the different diffracting zones, wherein the different liquid crystal layers have liquid crystal molecules (112, 212-1L...212-nR) that are aligned differently, such that the different diffracting zones have different optical properties associated with light diffraction, characterized in that the different diffracting zones include at least three diffracting zones each having different liquid crystal layers that are aligned differently or having different duty cycles from each other, and in that each of the different liquid crystal layers includes a first region (116A-1L, ..., 116C-nL, 144A-1a... 144B-2g, 156A-1L, ...156A-nL) and a second region (116A-1R, ..., 116C-nR, 144A-1a...144B-2g, 156A-1R, ...156A-nR) that are laterally adjacent to each other, and wherein liquid crystal molecules (112, 212-1L) within the first regions of the different liquid crystal layers have the same alignment. a plurality of different diffracting zones (108A-1...108A-n, 108B-1... 108B-n, 148A-1...148B-n, 154A-1, 154A-2, 164A-1, 164A-2, 198-1...198-n, 208-1, 208-2) having a periodically repeating lateral dimension corresponding to a grating period adapted for light diffraction; and a plurality of different liquid crystal layers (116A-1... 116B-n, 144A-1...144B-2, 156A-1...156C-2, 186-1...186-n, 196-1, 196-2) corresponding to the different diffracting zones, wherein the different liquid crystal layers have liquid crystal molecules (112, 212-1L...212-nR) that are aligned differently, such that the different diffracting zones have different optical properties associated with light diffraction, characterized in that the different diffracting zones include at least three diffracting zones each having different liquid crystal layers that are aligned differently or having different duty cycles from each other, and in that each of the different liquid crystal layers includes a first region (116A-1L, ..., 116C-nL, 144A-1a... 144B-2g, 156A-1L, ...156A-nL) and a second region (116A-1R, ..., 116C-nR, 144A-1a...144B-2g, 156A-1R, ...156A-nR) that are laterally adjacent to each other, and wherein liquid crystal molecules (112, 212-1L) within the first regions of the different liquid crystal layers have the same alignment.
Aircraft comprising a fuselage and a propulsion assembly, said propulsion assembly comprising at least one fan rotor placed at the rear of the fuselage , in the continuation thereof along a longitudinal axis (XX), and a nacelle forming a fairing of said at least one fan rotor , through which an airflow (F) passes, the aircraft comprising a plurality of radial stator arms mounted upstream of said at least one fan rotor and extending between the fuselage and the nacelle , said aircraft being characterised in that said radial arms comprising at least one variable-pitch movable portion designed to axially deflect said airflow (F), the variable-pitch movable portions pivoting about axes (Y, Y') which extend radially from the fuselage substantially from the same plane transverse to the longitudinal axis (XX) and being positioned at the intake of the nacelle and in that the nacelle comprises an upstream edge and each radial arm comprises a leading edge which is linked to the upstream edge of the nacelle and to the fuselage .
A user equipment comprising: a transmitter to transmit an uplink data packet to a base station using synchronous transmission timing based on a synchronous hybrid automatic repeat request protocol, and a receiver to receive in parallel a first feedback information element and a second control information element from a base station, wherein the first feedback information element includes an negative acknowledgement message signaling retransmission of an uplink data packet to the base station and the second control information element indicates a modulation and coding scheme for the retransmission, wherein the transmitter is configured to retransmit the uplink data packet to the base station according to the modulation and coding scheme. a transmitter to transmit an uplink data packet to a base station using synchronous transmission timing based on a synchronous hybrid automatic repeat request protocol, and a receiver to receive in parallel a first feedback information element and a second control information element from a base station, wherein the first feedback information element includes an negative acknowledgement message signaling retransmission of an uplink data packet to the base station and the second control information element indicates a modulation and coding scheme for the retransmission, wherein the transmitter is configured to retransmit the uplink data packet to the base station according to the modulation and coding scheme.
A method of generating a waveform for channel estimation, the method comprising: receiving a plurality of pilot symbols; creating, using an inverse symplectic Fourier transform with a windowing operation, a plurality of modulation symbols wherein the creating includes using each of the plurality pilot symbols to modulate one of a plurality of two-dimensional basis functions on a time-frequency plane wherein each of the plurality of two-dimensional basis functions is uniquely associated with one of the plurality of pilot symbols and wherein the windowing operation randomizes phases of the pilot symbols; and generating a transmit waveform comprised of a plurality of pulse waveforms, each of the plurality of pulse waveforms corresponding to a combination of one of the plurality of modulation symbols and one of a plurality of time-translated and frequency-modulated versions of a fundamental transmit pulse. receiving a plurality of pilot symbols; creating, using an inverse symplectic Fourier transform with a windowing operation, a plurality of modulation symbols wherein the creating includes using each of the plurality pilot symbols to modulate one of a plurality of two-dimensional basis functions on a time-frequency plane wherein each of the plurality of two-dimensional basis functions is uniquely associated with one of the plurality of pilot symbols and wherein the windowing operation randomizes phases of the pilot symbols; and generating a transmit waveform comprised of a plurality of pulse waveforms, each of the plurality of pulse waveforms corresponding to a combination of one of the plurality of modulation symbols and one of a plurality of time-translated and frequency-modulated versions of a fundamental transmit pulse.