mhurhangee/patent-ind-claim-en huggingface dataset:
A radio frequency, RF, resource allocation device that distributes to a mobile terminal a communication setting notification including a communication setting to be used in a radio communication, the RF resource allocation device comprising: an acquisition unit configured to acquire a measurement result or an estimation result of communication conditions at a plurality of positions; a generation unit configured to determine, for each region in a geographic area covered by the radio communication, the communication setting to be used by the mobile terminal in the radio communication based on the communication conditions, and to generate the communication setting notification including the communication setting for each region; and a transmission unit configured to transmit the communication setting notification to the mobile terminal, wherein the acquisition of the communication conditions by the acquisition unit and the generation of the communication setting notification by the generation unit are executed repeatedly at predetermined time intervals, characterized in that the generation unit is configured to determine the size of each region based on the communication conditions, and the communication conditions include communication performance of each communication setting or a utilization rate of a channel. an acquisition unit configured to acquire a measurement result or an estimation result of communication conditions at a plurality of positions; a generation unit configured to determine, for each region in a geographic area covered by the radio communication, the communication setting to be used by the mobile terminal in the radio communication based on the communication conditions, and to generate the communication setting notification including the communication setting for each region; and a transmission unit configured to transmit the communication setting notification to the mobile terminal, wherein the acquisition of the communication conditions by the acquisition unit and the generation of the communication setting notification by the generation unit are executed repeatedly at predetermined time intervals, characterized in that the generation unit is configured to determine the size of each region based on the communication conditions, and the communication conditions include communication performance of each communication setting or a utilization rate of a channel.
An apparatus for wireless communication comprising: means for transmitting (224a; 224ap) a clear to transmit, CTX, message to two or more stations , the CTX message indicating an uplink transmission opportunity, the CTX message further comprising a request for the two or more stations to concurrently transmit uplink data at a specific time ; wherein the CTX message comprises a physical layer convergence protocol protocol data unit, PPDU, duration field indicating a duration for the transmission of the uplink data; and means for receiving (224a; 224ap) a plurality of uplink data transmissions at the specific time from at least two stations of the two or more stations . means for transmitting (224a; 224ap) a clear to transmit, CTX, message to two or more stations , the CTX message indicating an uplink transmission opportunity, the CTX message further comprising a request for the two or more stations to concurrently transmit uplink data at a specific time ; wherein the CTX message comprises a physical layer convergence protocol protocol data unit, PPDU, duration field indicating a duration for the transmission of the uplink data; and means for receiving (224a; 224ap) a plurality of uplink data transmissions at the specific time from at least two stations of the two or more stations .
An apparatus for infrared photon sensing, comprising: a first readout integrated circuit (ROIC) comprising a plurality of first unit cells ; a second ROIC disposed outwardly in a first direction from the first ROIC and comprising a plurality of second unit cells , a plurality of electrically conductive vias disposed through the second ROIC and at least into the first ROIC ; a dual band detector array disposed outwardly in the first direction from the second ROIC and configured to detect high dynamic range infrared light, the detector array comprising a plurality of detector pixels , each detector pixel configured to: generate a current in response to detecting light; and send the current to a via of the plurality of electrical conductive vias , the via configured to send the current to a second unit cell of the plurality of second unit cells and a first unit cell of the plurality of first unit cells ; wherein the first unit cell of the plurality of first unit cells comprises a first switch ; the second unit cell of the plurality of second unit cells comprises a second switch ; the first switch and the second switch are configured to send current from the detector array alternately to the first ROIC and the second ROIC ; and the first ROIC and the second ROIC are configured to perform different functions. a first readout integrated circuit (ROIC) comprising a plurality of first unit cells ; a second ROIC disposed outwardly in a first direction from the first ROIC and comprising a plurality of second unit cells , a plurality of electrically conductive vias disposed through the second ROIC and at least into the first ROIC ; a dual band detector array disposed outwardly in the first direction from the second ROIC and configured to detect high dynamic range infrared light, the detector array comprising a plurality of detector pixels , each detector pixel configured to: generate a current in response to detecting light; and send the current to a via of the plurality of electrical conductive vias , the via configured to send the current to a second unit cell of the plurality of second unit cells and a first unit cell of the plurality of first unit cells ; generate a current in response to detecting light; and send the current to a via of the plurality of electrical conductive vias , the via configured to send the current to a second unit cell of the plurality of second unit cells and a first unit cell of the plurality of first unit cells ; wherein the first unit cell of the plurality of first unit cells comprises a first switch ; the second unit cell of the plurality of second unit cells comprises a second switch ; the first switch and the second switch are configured to send current from the detector array alternately to the first ROIC and the second ROIC ; and the first ROIC and the second ROIC are configured to perform different functions.
A method for performing an action in an electronic device , the method comprising: detecting a long press hold gesture as a first input on a first edge of the electronic device, the long press hold gesture indicating that a touch is held on the first edge during a predetermined time; detecting a second input on a second edge of the electronic device ; computing a movement distance of the second input along the second edge; detecting a start of a swipe gesture indicating that the movement distance is greater than a threshold value; if it is determined (2028, yes) that the long press hold gesture is removed from the first edge, performing an action corresponding to an item displayed on a screen of the electronic device based on the movement distance; and if it is determined that the long press hold gesture is not removed from the first edge (2028, no) and that an end of the swipe gesture is detected (2030, no), being ready to detect another second input on the second edge of the electronic device . detecting a long press hold gesture as a first input on a first edge of the electronic device, the long press hold gesture indicating that a touch is held on the first edge during a predetermined time; detecting a second input on a second edge of the electronic device ; computing a movement distance of the second input along the second edge; detecting a start of a swipe gesture indicating that the movement distance is greater than a threshold value; if it is determined (2028, yes) that the long press hold gesture is removed from the first edge, performing an action corresponding to an item displayed on a screen of the electronic device based on the movement distance; and if it is determined that the long press hold gesture is not removed from the first edge (2028, no) and that an end of the swipe gesture is detected (2030, no), being ready to detect another second input on the second edge of the electronic device .
An optical element comprising a plurality of concavities (h1 - hn) arranged at a modal pitch not greater than a wavelength of light under a usage environment on one side of the optical element , wherein the optical element comprises two or more domains (C1-Cn) in a planar view, each of the domains (C1-Cn) comprising a predetermined arrangement of the plurality of concavities (h1-hn), and the lattice orientations of the concavities (h1-hn) are ordered within each domain (C1-Cn) but are not ordered macroscopically, a plurality of prominent convex protrusions (d1-dn) are formed in at least one region selected from the group consisting of a region surrounded by a plurality of the domains (C1-Cn) and a region surrounded by the plurality of concavities (h1-hn) in one of the domains, and a prominent convex protrusion (d1-dn) has a height not less than the standard deviation 1σ of the depths of the concavities (h1-hn) from a reference plane N, which is a plane at the position of modal surface height of the concavities (h1-hn), characterized in that an area ratio of the plurality of prominent convex protrusions (d1-dn) in a planar view, determined by dividing an area of prominent convex protrusions (d1-dn) at the reference plane N in a region of the optical element by a whole area of said region, is from 1% to 15%.
A vehicle brake hydraulic pressure control apparatus installed in a vehicle (CR) reducing a drive torque during a halt, the apparatus including vehicle holding control means for performing vehicle holding control by holding a brake hydraulic pressure when the vehicle is at a halt, wherein: the vehicle holding control means is configured to release the holding of the brake hydraulic pressure based on an accelerator operation of a driver when the vehicle is at a halt and is further configured to release the holding of the brake hydraulic pressure completely before a drive torque of the vehicle starts increasing; characterised by gradient acquiring means for acquiring a road surface gradient (α), wherein, only when an absolute value of the road surface gradient acquired by the gradient acquiring means is less than a predetermined value, in the releasing of the holding of the brake hydraulic pressure, the vehicle holding control means releases the holding of the brake hydraulic pressure completely before the drive torque of the vehicle starts increasing. the vehicle holding control means is configured to release the holding of the brake hydraulic pressure based on an accelerator operation of a driver when the vehicle is at a halt and is further configured to release the holding of the brake hydraulic pressure completely before a drive torque of the vehicle starts increasing; characterised by gradient acquiring means for acquiring a road surface gradient (α), wherein, only when an absolute value of the road surface gradient acquired by the gradient acquiring means is less than a predetermined value, in the releasing of the holding of the brake hydraulic pressure, the vehicle holding control means releases the holding of the brake hydraulic pressure completely before the drive torque of the vehicle starts increasing.
Process for making a complexing agent with an enantiomeric excess of at least 60%, wherein said process comprises the following steps: (a) reacting an aqueous slurry of alanine with an enantiomeric excess of at least 60% with formaldehyde and hydrocyanic acid, thereby forming an aqueous solution of alanine-bisacetonitrile, (b) saponifying the alanine-bisacetonitrile from step (a) by combining the aqueous solution obtained in step (a) with an aqueous solution of alkali metal hydroxide. (a) reacting an aqueous slurry of alanine with an enantiomeric excess of at least 60% with formaldehyde and hydrocyanic acid, thereby forming an aqueous solution of alanine-bisacetonitrile, (b) saponifying the alanine-bisacetonitrile from step (a) by combining the aqueous solution obtained in step (a) with an aqueous solution of alkali metal hydroxide.
A vessel comprising: a hull with a transom for holding at least one outboard engine having a cowl ; an engine cover positioned over an outboard engine when mounted to said transom ; and a mist shield surrounding said engine cowl , said mist shield having edges spaced from said cowl and a flexible member extending from said edges into engagement with said engine cowl . a hull with a transom for holding at least one outboard engine having a cowl ; an engine cover positioned over an outboard engine when mounted to said transom ; and a mist shield surrounding said engine cowl , said mist shield having edges spaced from said cowl and a flexible member extending from said edges into engagement with said engine cowl .
A system for processing a signal to be transmitted, TX signal, and a received signal, RX signal , the TX signal having a first TX carrier signal component and a second TX carrier signal component, and the RX signal having a RX carrier signal component, the system comprising: one or more frequency-shift circuits , configured to, when a difference between a center frequency of the first TX carrier signal component and a center frequency of the second TX carrier signal component is a first value, perform frequency shifting of signals components of one or more of the RX signal and the TX signal to generate a frequency-shifted output where the RX carrier signal component and the first and the second TX carrier signal components are aligned in a frequency spectrum, wherein the frequency shifted output includes: an aligned RX carrier signal component, based on the RX carrier signal component, an aligned first TX carrier signal component, based on the first TX carrier signal component, and an aligned second TX carrier signal component, based on the second TX carrier signal component, wherein each of a difference between a center frequency of the aligned first TX carrier signal component and a center frequency of the aligned second TX carrier signal component and a difference between a center frequency of the aligned RX carrier signal component and the center frequency of the aligned first TX carrier signal component is smaller than the first value; and a passive inter-modulation (PIM) estimation circuit , configured to generate, based on the frequency-shifted output, an estimate of a PIM signal component to be applied to the RX signal to generate an RX signal with reduced PIM. an aligned RX carrier signal component, based on the RX carrier signal component, an aligned first TX carrier signal component, based on the first TX carrier signal component, and an aligned second TX carrier signal component, based on the second TX carrier signal component, wherein each of a difference between a center frequency of the aligned first TX carrier signal component and a center frequency of the aligned second TX carrier signal component and a difference between a center frequency of the aligned RX carrier signal component and the center frequency of the aligned first TX carrier signal component is smaller than the first value; and a passive inter-modulation (PIM) estimation circuit , configured to generate, based on the frequency-shifted output, an estimate of a PIM signal component to be applied to the RX signal to generate an RX signal with reduced PIM.
Coffee machine , in particular fully automatic coffee machine, with a brewing chamber for preparing a coffee product, with a grounds container for receiving the coffee grounds generated in the brewing chamber , characterised by a laser scanner for determining an amount of coffee grounds which has accumulated in the grounds container .
Method for operating a vehicle , wherein, when the adaptive cruise control is activated, the method involves switching to an accelerator pedal-controlled distance controller in response to an acceleration request of a driver of the vehicle indicated by an override of an accelerator pedal of the vehicle , wherein the adaptive cruise control controls a power setpoint value for a drive of the vehicle as a function of a current speed of the vehicle and as a function of a current distance to a vehicle ahead in such a way that the distance remains within a distance tolerance range if the distance substantially corresponds to a speed-dependent setpoint distance , wherein the distance controller converts the acceleration request into the power setpoint value as a function of the current distance , wherein a change in the power setpoint value becomes smaller, the closer the current distance is to a distance target value , wherein the distance target value is less than the setpoint distance , characterized in that , in response to an end of the acceleration request, the method involves switching from the accelerator pedal-controlled distance controller back to the use of the adaptive cruise control , so that the vehicle travels again with the setpoint distance to the third-party vehicle as soon as the driver takes their foot off the accelerator pedal . wherein the adaptive cruise control controls a power setpoint value for a drive of the vehicle as a function of a current speed of the vehicle and as a function of a current distance to a vehicle ahead in such a way that the distance remains within a distance tolerance range if the distance substantially corresponds to a speed-dependent setpoint distance , wherein the distance controller converts the acceleration request into the power setpoint value as a function of the current distance , wherein a change in the power setpoint value becomes smaller, the closer the current distance is to a distance target value , wherein the distance target value is less than the setpoint distance , characterized in that , in response to an end of the acceleration request, the method involves switching from the accelerator pedal-controlled distance controller back to the use of the adaptive cruise control , so that the vehicle travels again with the setpoint distance to the third-party vehicle as soon as the driver takes their foot off the accelerator pedal .
A laser gas analyzer comprising: an optical emitter configured to irradiate laser light onto a measurement target gas; a reflector configured to reflect the laser light after the laser light passes through the measurement target gas; an optical receiver configured to receive the laser light reflected by the reflector ; a controller configured to control the optical emitter and process an output signal from the optical receiver ; a tubular measurement target gas passage disposed between the optical emitter and the reflector and comprising an opening such that the measurement target gas flows into and out of the measurement target gas passage via the opening ; a first purge region disposed on the optical emitter side of the measurement target gas passage and filled with a purge gas not including a component to be measured; and a first separation wall defining a boundary between the measurement target gas passage and the first purge region and comprising a hole through which the laser light can pass;wherein the hole has an area smaller than the flow passage area of the first purge region , so that passage of the purge gas from the first purge region to the measurement target gas passage is limited, and wherein a surface of the first separation wall facing the optical emitter has an unevenness formed thereon to promote diffusion of the laser light or is configured to promote absorption of the laser light to avoid unwanted backreflection of the laser light to the optical receiver . an optical emitter configured to irradiate laser light onto a measurement target gas; a reflector configured to reflect the laser light after the laser light passes through the measurement target gas; an optical receiver configured to receive the laser light reflected by the reflector ; a controller configured to control the optical emitter and process an output signal from the optical receiver ; a tubular measurement target gas passage disposed between the optical emitter and the reflector and comprising an opening such that the measurement target gas flows into and out of the measurement target gas passage via the opening ; a first purge region disposed on the optical emitter side of the measurement target gas passage and filled with a purge gas not including a component to be measured; and a first separation wall defining a boundary between the measurement target gas passage and the first purge region and comprising a hole through which the laser light can pass;wherein the hole has an area smaller than the flow passage area of the first purge region , so that passage of the purge gas from the first purge region to the measurement target gas passage is limited, and wherein a surface of the first separation wall facing the optical emitter has an unevenness formed thereon to promote diffusion of the laser light or is configured to promote absorption of the laser light to avoid unwanted backreflection of the laser light to the optical receiver .
A hail and other impact simulation device for testing solar cell surfaces having a device for generating impact loads on a test surface, characterized in that the device comprises a plurality of balls , imitating hailstones, attached by a flexible joint to a rotating shaft connected to a motor .
A system, comprising: a turbine exhaust collector , comprising: a first enclosure having an exhaust inlet and an exhaust outlet ; a diffuser coupled to the exhaust inlet , wherein the diffuser comprises an inner diffuser wall disposed about a cavity having a rotary shaft , an outer diffuser wall disposed about the inner diffuser wall , and an exhaust flow path between the inner and outer diffuser walls ; and a first cooling flow path extending through the cavity having the rotary shaft , wherein the first enclosure is separate from a second enclosure surrounding a gas turbine ; characterized in that the first cooling flow path extends through at least one passage through the inner diffuser wall into the exhaust flow path ; wherein the at least one passage has a cross-sectional area that decreases in a direction from the cavity to the exhaust flow path , and/or wherein a first baffle is coupled to the inner diffuser wall upstream of the at least one passage, wherein the first baffle turns in a downstream direction of the exhaust flow path . a first enclosure having an exhaust inlet and an exhaust outlet ; a diffuser coupled to the exhaust inlet , wherein the diffuser comprises an inner diffuser wall disposed about a cavity having a rotary shaft , an outer diffuser wall disposed about the inner diffuser wall , and an exhaust flow path between the inner and outer diffuser walls ; and a first cooling flow path extending through the cavity having the rotary shaft , wherein the first enclosure is separate from a second enclosure surrounding a gas turbine ; characterized in that the first cooling flow path extends through at least one passage through the inner diffuser wall into the exhaust flow path ; wherein the at least one passage has a cross-sectional area that decreases in a direction from the cavity to the exhaust flow path , and/or wherein a first baffle is coupled to the inner diffuser wall upstream of the at least one passage, wherein the first baffle turns in a downstream direction of the exhaust flow path .