mhurhangee/patent-ind-claim-en huggingface dataset:
A host interface layer in a storage device , the host interface layer including: an arbitrator to select a first submission queue, SQ, from a set including at least the first SQ and a second SQ, the first SQ associated with a first Quality of Service, QoS, level, the second SQ associated with a second QoS level; a command fetcher to retrieve an input/output, I/O, request from the first SQ; and a command parser to place the I/O request in a first command queue from a set including at least the first command queue and a second command queue, wherein the arbitrator is configured to select the first SQ from the set including at least the first SQ and the second SQ based at least in part on a first weight associated with the first SQ and a second weight associated with the second SQ, wherein the first weight is based at least in part on a first total storage capacity of at least one first namespace, NS, associated with the first QoS level, and wherein the second weight is based at least in part on a second total storage capacity of at least one second NS associated with the second QoS level. an arbitrator to select a first submission queue, SQ, from a set including at least the first SQ and a second SQ, the first SQ associated with a first Quality of Service, QoS, level, the second SQ associated with a second QoS level; a command fetcher to retrieve an input/output, I/O, request from the first SQ; and a command parser to place the I/O request in a first command queue from a set including at least the first command queue and a second command queue, wherein the arbitrator is configured to select the first SQ from the set including at least the first SQ and the second SQ based at least in part on a first weight associated with the first SQ and a second weight associated with the second SQ, wherein the first weight is based at least in part on a first total storage capacity of at least one first namespace, NS, associated with the first QoS level, and wherein the second weight is based at least in part on a second total storage capacity of at least one second NS associated with the second QoS level.
An apparatus comprising: memory configured to store one or more patches representing an object in an image; and a processor , coupled to the memory , configured to perform one or more tessellation operations on the one or more patches, wherein the one or more tessellation operations are to comprise splitting one or more of the patches into one or more subpatches, characterized in that : load balancing the one or more patches and the one or more subpatches among two or more geometry and setup fixed-function pipelines, GSPs. memory configured to store one or more patches representing an object in an image; and a processor , coupled to the memory , configured to perform one or more tessellation operations on the one or more patches, wherein the one or more tessellation operations are to comprise splitting one or more of the patches into one or more subpatches, characterized in that : load balancing the one or more patches and the one or more subpatches among two or more geometry and setup fixed-function pipelines, GSPs.
A method of generating a control schedule for a wind turbine , the control schedule indicating how the turbine maximum power level varies over time, the method comprising: determining a value indicative of the current remaining fatigue lifetime of the turbine , or one or more turbine components, based on measured wind turbine site and/or operating data; applying an optimisation function that varies an initial control schedule to determine an optimised control schedule by varying the trade off between energy capture and fatigue life consumed by the turbine or the one or more turbine components until an optimised control schedule is determined, the optimisation including: estimating future fatigue lifetime consumed by the turbine or turbine component over the duration of the varied control schedule based on the current remaining fatigue lifetime and the varied control schedule; and constraining the optimisation of the control schedule according to one or more input constraints; wherein the optimisation further includes varying an initial value for a wind turbine lifetime, and varying an initial value for the number of component replacements, for one or more components, to be performed over the course of the schedule to determine a combination of the number of component replacements for one or more turbine components and the wind turbine lifetime, the wind turbine lifetime being determined as a target minimum wind turbine lifetime. determining a value indicative of the current remaining fatigue lifetime of the turbine , or one or more turbine components, based on measured wind turbine site and/or operating data; applying an optimisation function that varies an initial control schedule to determine an optimised control schedule by varying the trade off between energy capture and fatigue life consumed by the turbine or the one or more turbine components until an optimised control schedule is determined, the optimisation including: estimating future fatigue lifetime consumed by the turbine or turbine component over the duration of the varied control schedule based on the current remaining fatigue lifetime and the varied control schedule; and constraining the optimisation of the control schedule according to one or more input constraints; estimating future fatigue lifetime consumed by the turbine or turbine component over the duration of the varied control schedule based on the current remaining fatigue lifetime and the varied control schedule; and constraining the optimisation of the control schedule according to one or more input constraints; wherein the optimisation further includes varying an initial value for a wind turbine lifetime, and varying an initial value for the number of component replacements, for one or more components, to be performed over the course of the schedule to determine a combination of the number of component replacements for one or more turbine components and the wind turbine lifetime, the wind turbine lifetime being determined as a target minimum wind turbine lifetime.
Rear automotive light of the type comprising: a substantially basin-shaped, rear shell which is structured so to be fixed onto the vehicle body; a front lenticular half-shell arranged to close the mouth of the rear shell ; at least a cup-shaped reflector body which is arranged inside the rear shell with its own mouth facing towards a first transparent or semitransparent portion of the front lenticular half-shell ; and a light source which is structured so to emit light when electricity powered, and is arranged within the rear shell , close to the bottom of the latter, so as to be able to backlight said first transparent or semitransparent portion of the front lenticular half-shell ; the rear automotive light being characterized in that it also comprises a heat extraction tubular duct that overhangingly protrudes from the bottom of the cup-shaped reflector body , and extends upwards inside the rear shell up to reach an opening made in the back of the rear shell .
A detector (100; 400) comprising: a radiation absorption layer comprising a first surface (101; 201), a first electrical contact (119A; 219A) on the first surface, a second surface (102; 202) opposite the first surface, a second electrical contact (119B; 219B) on the second surface, and a plurality of sidewalls; an electronics layer bonded to the radiation absorption layer, the electronics layer comprising an electronic system configured to process electrical signals on the second electrical contact; characterized in that only one (116;216;416) of the plurality of sidewalls is doped. a radiation absorption layer comprising a first surface (101; 201), a first electrical contact (119A; 219A) on the first surface, a second surface (102; 202) opposite the first surface, a second electrical contact (119B; 219B) on the second surface, and a plurality of sidewalls; an electronics layer bonded to the radiation absorption layer, the electronics layer comprising an electronic system configured to process electrical signals on the second electrical contact;
A composition comprising a non-homogenized chorionic matrix, a homogenized amniotic matrix and a homogenized umbilical cord (UC) matrix, wherein the non-homogenized chorionic matrix comprises viable, native cells.
A method for inputting and outputting a text consisting of characters, said text during input being input using an input unit in the form of a combination of full text and short text, and said input short text containing at least one abbreviation in the form of characters or character combinations to which predefined full text contents have been allocated, characterized in that during input, the space bar (L1) is actuated after each full text word and a predefined key (L2) is actuated after each abbreviation to separate full text and short text, wherein the text during output using an output unit being optionally output in the form of a combination of full text and short text and the output short text containing at least one abbreviation in the form of characters or character combinations.
A method for isomerizing a hydrohalofluoroolefin isomer (isomer 1) to produce a corresponding hydrohalofluoroolefin isomer (isomer 2), comprising step 1 of contacting a composition that contains at least a hydrohalofluoroolefin isomer (isomer 1) and that has been adjusted to 100 ppm or lower in moisture concentration, with a catalyst in a gas phase, thereby obtaining a product.
An adhesive composition for encapsulating an organic electronic element, comprising: an olefin-based resin having a water vapor transmission rate (WVTR) of 50 g/m 2 ·day or less, measured at 37.78 °C (100 °F) and a relative humidity of 100% in a thickness direction of a film formed in a layer of the resin to the thickness of 100 μm, a heat-curable resin, and a radical photocurable compound, the adhesive composition satisfying General Equation 1: F ≥ 5.884 N F ≥ 600 g f where F is a shear strength, the adhesive composition is applied in a circle on a lower glass having a size of 5 cm × 9 cm (width × length), and an upper glass having a size of 5 cm × 9 cm (width × length) is laminated on the adhesive composition to overlap the lower glass 5 cm in a widthwise direction and 2.5 cm in a lengthwise direction, thereby preparing a specimen in which the adhesive composition is disposed between the upper and lower glasses in a circle having a diameter of 17 mm and a thickness of 20 μm, and the specimen is irradiated with light in the UV-A wavelength range at a dose of 3 J/cm 2 , the upper glass and lower glass were fixed to a texture analyzer (XT2 plus), and the upper glass was pulled in a lengthwise direction at 0.1 mm/sec at 25 °C to measure a force, and the maximum value of the measured force is defined as F, wherein the olefin-based resin is derived from an isoolefin monomer or a multiolefin monomer having at least 4 to 7 carbon atoms and has a weight average molecular weight of 100,000 or less. an olefin-based resin having a water vapor transmission rate (WVTR) of 50 g/m 2 ·day or less, measured at 37.78 °C (100 °F) and a relative humidity of 100% in a thickness direction of a film formed in a layer of the resin to the thickness of 100 μm, a heat-curable resin, and a radical photocurable compound, the adhesive composition satisfying General Equation 1: F ≥ 5.884 N F ≥ 600 g f where F is a shear strength, the adhesive composition is applied in a circle on a lower glass having a size of 5 cm × 9 cm (width × length), and an upper glass having a size of 5 cm × 9 cm (width × length) is laminated on the adhesive composition to overlap the lower glass 5 cm in a widthwise direction and 2.5 cm in a lengthwise direction, thereby preparing a specimen in which the adhesive composition is disposed between the upper and lower glasses in a circle having a diameter of 17 mm and a thickness of 20 μm, and the specimen is irradiated with light in the UV-A wavelength range at a dose of 3 J/cm 2 , the upper glass and lower glass were fixed to a texture analyzer (XT2 plus), and the upper glass was pulled in a lengthwise direction at 0.1 mm/sec at 25 °C to measure a force, and the maximum value of the measured force is defined as F,
An apparatus comprising at least one control unit configured to: receive, from at least one image capturing device, an image of an object captured from a vehicle; output, to at least one display device, the image of the object for display to an occupant of the vehicle, determine whether to alert the occupant to proximity of the object, and in response to determining to alert the occupant to proximity of the object, superimpose, on the image of the object for display on the at least one display device, a dynamic pattern through which the image of the object remains visible, wherein the at least one control unit is configured to determine whether to alert the occupant to proximity of the object based at least in part on a calculated degree of danger score, and wherein the dynamic pattern is generated when the degree of danger score is equal to or greater than a predetermined threshold value, wherein the calculated degree of danger score is higher as the distance between the vehicle and the object is smaller and the speed of the approaching object is faster, and wherein the dynamic pattern varies by moving, with a predetermined period, at least a portion of the dynamic pattern relative to the image of the object. receive, from at least one image capturing device, an image of an object captured from a vehicle; output, to at least one display device, the image of the object for display to an occupant of the vehicle, determine whether to alert the occupant to proximity of the object, and in response to determining to alert the occupant to proximity of the object, superimpose, on the image of the object for display on the at least one display device, a dynamic pattern through which the image of the object remains visible, wherein the at least one control unit is configured to determine whether to alert the occupant to proximity of the object based at least in part on a calculated degree of danger score, and wherein the dynamic pattern is generated when the degree of danger score is equal to or greater than a predetermined threshold value, wherein the calculated degree of danger score is higher as the distance between the vehicle and the object is smaller and the speed of the approaching object is faster, and wherein the dynamic pattern varies by moving, with a predetermined period, at least a portion of the dynamic pattern relative to the image of the object.
A tracking device comprising: an illumination source configured to illuminate a portion of skin of a user, wherein the illuminated portion of skin moves in response to movement of a body part of the user, and the illuminated portion of skin is smaller than the body part; an optical sensor configured to capture a plurality of images of the illuminated portion of skin and a controller configured to: infer a pose of the body part based in part on a model and the captured images, wherein the model maps various configurations of skin of the user to different poses of the body part; characterised in that the controller is further configured to: automatically determine a position on the body where the user is wearing the tracking device; and subsequently modify, based on the determined position, the inference mechanisms through which a pose is inferred. an illumination source configured to illuminate a portion of skin of a user, wherein the illuminated portion of skin moves in response to movement of a body part of the user, and the illuminated portion of skin is smaller than the body part; an optical sensor configured to capture a plurality of images of the illuminated portion of skin and a controller configured to: infer a pose of the body part based in part on a model and the captured images, wherein the model maps various configurations of skin of the user to different poses of the body part; characterised in that the controller is further configured to: automatically determine a position on the body where the user is wearing the tracking device; and subsequently modify, based on the determined position, the inference mechanisms through which a pose is inferred. infer a pose of the body part based in part on a model and the captured images, wherein the model maps various configurations of skin of the user to different poses of the body part; characterised in that the controller is further configured to: automatically determine a position on the body where the user is wearing the tracking device; and subsequently modify, based on the determined position, the inference mechanisms through which a pose is inferred. automatically determine a position on the body where the user is wearing the tracking device; and subsequently modify, based on the determined position, the inference mechanisms through which a pose is inferred.
A power safety device comprising a controller and power connection circuitry, the power connection circuitry defining a switchable power connection path between a source side and a load side; wherein the power connection circuitry is switchable by the controller to operate in a first operation state which is an on-state to permit flow of operation current through the power connection circuitry, or a second operation state which is an off-state to impede flow of operation current through the power connection circuitry; wherein the controller is to operate to transmit a probing signal to the load side when the power connection circuitry is in the off-state, and to evaluate and determine whether a response signal or a plurality of response signals from the load side contains at least one of a plurality of characteristic electrical properties indicative of direct electrical contact of a human body or a living body on the load side; and wherein the controller is to operate to switch the power connection circuitry from the off-state to the on-state if the responsive signals are determined by the controller as not containing one or a plurality of the characteristic electrical properties on the load side; characterized in that the characteristic electrical properties include: i). an initial resistance, wherein the initial resistance is lower than an asymptotic resistance, and the initial resistance limits magnitude of a peak value of current to flow through the living body at the moment when the probing signal occurs, ii). frequency variable resistance or frequency dependent resistance, iii). voltage variable capacitance or voltage dependent capacitance, iv). time variable resistance and impedance or time dependent resistance and impedance, v). time variable capacitance or time dependent capacitance, and vi). time variable current density or time dependent current density, vii). rate of decrease of impedance with increase in touch voltage frequency is dependent on the touch voltage, and viii). rate of decrease of impedance with increase in touch voltage frequency is higher for a lower touch voltage and lower for a higher touch voltage. i). an initial resistance, wherein the initial resistance is lower than an asymptotic resistance, and the initial resistance limits magnitude of a peak value of current to flow through the living body at the moment when the probing signal occurs, ii). frequency variable resistance or frequency dependent resistance, iii). voltage variable capacitance or voltage dependent capacitance, iv). time variable resistance and impedance or time dependent resistance and impedance, v). time variable capacitance or time dependent capacitance, and vi). time variable current density or time dependent current density, vii). rate of decrease of impedance with increase in touch voltage frequency is dependent on the touch voltage, and viii). rate of decrease of impedance with increase in touch voltage frequency is higher for a lower touch voltage and lower for a higher touch voltage.
A grain storage and processing facility configured to stockpile and store grain and having a grain receiving station for receiving a grain transport vehicle, the grain receiving station comprising a grain pit configured to receive grain from the grain transport vehicle, and a grain transport line comprising a grain elevator , a distributor with at least one input spout , and at least one grain bin , wherein the grain transport line moves grain from the grain pit to one of the at least one grain bins and the distributor directs the grain to a selected bin of the at least one grain bin; the grain storage and processing facility further comprising: an optical sensing system having at least one optical sensor positioned in the grain transport line at or before the distributor , wherein the optical sensing system senses the type of grain in the grain transport line ; and a control system that determines if the grain passing through the grain transport line is suitable for the selected grain bin and produces an alarm if the grain in the grain transport line is not suitable for the selected grain bin. an optical sensing system having at least one optical sensor positioned in the grain transport line at or before the distributor , wherein the optical sensing system senses the type of grain in the grain transport line ; and a control system that determines if the grain passing through the grain transport line is suitable for the selected grain bin and produces an alarm if the grain in the grain transport line is not suitable for the selected grain bin.
A method for the retention and imaging of proteins of a sample of interest comprising the steps of: (a) conjugating proteins within the sample with a bifunctional crosslinker, wherein the bifunctional crosslinker comprises a protein-reactive chemical group and a swellable material-reactive chemical group; (b) embedding the sample in a swellable material wherein proteins within the sample are anchored to the swellable material; (c) subjecting the sample to digestion by treating the sample with LysC or autoclaving; (d) swelling the swellable material to form an expanded sample; and (e) imaging the expanded sample. (a) conjugating proteins within the sample with a bifunctional crosslinker, wherein the bifunctional crosslinker comprises a protein-reactive chemical group and a swellable material-reactive chemical group; (b) embedding the sample in a swellable material wherein proteins within the sample are anchored to the swellable material; (c) subjecting the sample to digestion by treating the sample with LysC or autoclaving; (d) swelling the swellable material to form an expanded sample; and (e) imaging the expanded sample.