mhurhangee/patent-ind-claim-en huggingface dataset:
A data storage device , comprising: a storage medium including a first subset configured to store user data and a second subset configured to store snapshot data; a controller configured to: receive, from a host operably coupled to the data storage device, a command to configure the second subset; characterised in that the controller is configured to verify an authenticity of the command; and execute the command in response to the verification of the authenticity of the command, wherein the controller is configured to verify the authenticity of the command by verifying that the command has been signed with a predetermined cryptographic key, wherein the predetermined cryptographic key is generated by the data storage device and provided to the host device during an initial configuration of the data storage device, and wherein the command to configure the second subset is a command to overwrite snapshot data stored in the second subset. a storage medium including a first subset configured to store user data and a second subset configured to store snapshot data; a controller configured to: receive, from a host operably coupled to the data storage device, a command to configure the second subset; characterised in that the controller is configured to verify an authenticity of the command; and execute the command in response to the verification of the authenticity of the command, wherein the controller is configured to verify the authenticity of the command by verifying that the command has been signed with a predetermined cryptographic key, wherein the predetermined cryptographic key is generated by the data storage device and provided to the host device during an initial configuration of the data storage device, and wherein the command to configure the second subset is a command to overwrite snapshot data stored in the second subset. verify an authenticity of the command; and execute the command in response to the verification of the authenticity of the command, wherein the controller is configured to verify the authenticity of the command by verifying that the command has been signed with a predetermined cryptographic key, wherein the predetermined cryptographic key is generated by the data storage device and provided to the host device during an initial configuration of the data storage device, and wherein the command to configure the second subset is a command to overwrite snapshot data stored in the second subset.
A surface inspection system suitable for determining the position of glossy portions on the surface of sheet elements present in an inspection area , comprising an image evaluation unit , a camera , a dark-field illuminator and a bright-field illuminator , the image evaluation unit being configured to subtract a line image captured under bright-field illumination conditions from a line image captured under dark-field illumination conditions, characterized in that the intensity of the light originating from the dark-field illuminator being, at the camera , the same as the intensity of the light originating from the bright-field illuminator when a sheet element is being inspected which has a diffusely reflecting surface.
A resource allocation method, comprising: receiving , by a terminal device, downlink control information, DCI, from a network device, wherein the DCI comprises resource indication information, and the resource indication information comprises a first field and a second field, wherein the first field indicates a transmission resource allocation manner, and the first field and the second field indicate a resource indicator value; determining , by the terminal device, a first resource allocation manner based on the resource indication information, wherein the first resource allocation manner is used to allocate a transmission resource greater than 6 resource blocks, RBs; determining , by the terminal device, an allocated transmission resource based on the first resource allocation manner and the resource indication information; and transmitting , by the terminal device, data by using the allocated transmission resource. receiving , by a terminal device, downlink control information, DCI, from a network device, wherein the DCI comprises resource indication information, and the resource indication information comprises a first field and a second field, wherein the first field indicates a transmission resource allocation manner, and the first field and the second field indicate a resource indicator value; determining , by the terminal device, a first resource allocation manner based on the resource indication information, wherein the first resource allocation manner is used to allocate a transmission resource greater than 6 resource blocks, RBs; determining , by the terminal device, an allocated transmission resource based on the first resource allocation manner and the resource indication information; and transmitting , by the terminal device, data by using the allocated transmission resource.
A nucleic acid molecule comprising a nucleic acid sequence encoding a modified viral RNA replicon derived from a Venezuelan equine encephalitis virus (VEEV), wherein the nucleic acid molecule comprises the nucleotide sequence of SEQ ID NO: 19.
A leadless pacing device for delivering pacing pulses to a heart of a patient, the leadless pacing device comprising: a power supply for providing a power supply voltage; a housing at least partially supporting the power supply , the housing having a distal end, a proximal end, and a side extending between the distal end and the proximal end; a plurality of electrodes on the housing ; a fixing member extending from the housing ; a distal extension connected to the housing and extending distally of the distal end of the housing ; a guide wire port (54; and a guide wire lumen characterized in that the guide wire port extends through the side of the housing at a location proximal of the fixing member ; and the guide wire lumen extends from the guide wire port in the side of the housing and at a location proximal of the fixing member to a distal end of the distal extension . a power supply for providing a power supply voltage; a housing at least partially supporting the power supply , the housing having a distal end, a proximal end, and a side extending between the distal end and the proximal end; a plurality of electrodes on the housing ; a fixing member extending from the housing ; a distal extension connected to the housing and extending distally of the distal end of the housing ; a guide wire port (54; and a guide wire lumen characterized in that the guide wire port extends through the side of the housing at a location proximal of the fixing member ; and the guide wire lumen extends from the guide wire port in the side of the housing and at a location proximal of the fixing member to a distal end of the distal extension .
A sealed enclosure comprising: a housing defining an opening ; a cable sealing arrangement including: inner and outer sealant axial containment structures that are axially fixed relative to one another; and sealant (121-123, 824, 924, 2020) contained between the inner and outer axial containment structures ; the cable sealing arrangement being positioned within the opening , the cable sealing arrangement engaging the housing to seal the opening , the sealant (121-123, 824, 2020) of the cable sealing arrangement including a block of gel defining a total gel volume, the cable sealing arrangement including at least first and second gel sections which coincide with at least a portion of the block of gel , the cable sealing arrangement including a cable pass-through location defined at an interface between the first and second gel sections , the first and second gel sections being configured to form seals about cables routed axially through the cable pass-through location , the gel volume having a first outer boundary corresponding to an outer shape of the gel volume when the block of gel is not sealing about cables , characterized in that , an open space is provided to accommodate deformation of the block of gel when the gel is pressurized while one or more cables are within the cable pass-through location , and wherein the open space has a volume that is at least 5 percent, or at least 10 percent, or at least 12.5 percent or at least 15 percent as large as the total gel volume. a housing defining an opening ; a cable sealing arrangement including: inner and outer sealant axial containment structures that are axially fixed relative to one another; and sealant (121-123, 824, 924, 2020) contained between the inner and outer axial containment structures ; inner and outer sealant axial containment structures that are axially fixed relative to one another; and sealant (121-123, 824, 924, 2020) contained between the inner and outer axial containment structures ; the cable sealing arrangement being positioned within the opening , the cable sealing arrangement engaging the housing to seal the opening , the sealant (121-123, 824, 2020) of the cable sealing arrangement including a block of gel defining a total gel volume, the cable sealing arrangement including at least first and second gel sections which coincide with at least a portion of the block of gel , the cable sealing arrangement including a cable pass-through location defined at an interface between the first and second gel sections , the first and second gel sections being configured to form seals about cables routed axially through the cable pass-through location , the gel volume having a first outer boundary corresponding to an outer shape of the gel volume when the block of gel is not sealing about cables , characterized in that , an open space is provided to accommodate deformation of the block of gel when the gel is pressurized while one or more cables are within the cable pass-through location , and wherein the open space has a volume that is at least 5 percent, or at least 10 percent, or at least 12.5 percent or at least 15 percent as large as the total gel volume.
An electronic device comprising: a memory configured to store a plurality of digital images; and a processor , wherein the processor tracks movement of an object recognized in the plurality of digital images, and the processor detects an amount of movement between the plurality of digital images, wherein when the amount of the movement is greater than a threshold, the processor tracks the object on an input image using a descriptor matching method, wherein when the amount of the movement is not greater than the threshold, the processor tracks the object on the input image using a patch matching method, determines if the tracking of the object succeeds, and when the tracking the object using the patch matching method fails, the processor tracks the object on the input image data using the descriptor matching method, and wherein the descriptor matching method, using one of a Scale Invariant Feature Transform, SIFT, algorithm, a Speed Up Robust Features, SURF, algorithm, or a Binary Robust Independent Elementary Features, BRIEF, algorithm, extracts features of an area around an interest point and uses the extracted features to perform matching, and the patch matching method performs matching by using a local area around the interest point without processing the local area before performing matching. a memory configured to store a plurality of digital images; and a processor ,
A polycarbonate diol, comprising: repeating units represented by formula (A), formula (B) and formula (C); and hydroxyl groups located at both terminals of the polycarbonate diol, wherein the molar ratio of formula (A) to formula (B) is from 1:99 to 99:1, and the molar ratio of the sum of formula (A) and formula (B) to formula (C) is from 25:75 to 99:1, wherein: R 1 represents a C 2 -C 20 alkylene group excluding an alkylene group derived from 2-methyl-1,3-propanediol; R 2 represents a linear or branched C 2 -C 20 alkylene group; R 3 represents a linear or branched C 2 -C 10 alkylene group; and m and n are independently an integer from 0 to 10, and m + n ≥ 1. R 1 represents a C 2 -C 20 alkylene group excluding an alkylene group derived from 2-methyl-1,3-propanediol; R 2 represents a linear or branched C 2 -C 20 alkylene group; R 3 represents a linear or branched C 2 -C 10 alkylene group; and m and n are independently an integer from 0 to 10, and m + n ≥ 1.
An apparatus comprising: a light detector ; a light source , laterally offset from the light detector by a first lateral offset, d, in a first direction, defined from the light detector to the light source; diffraction optics configured to receive light emitted by the light source and output the received light, wherein the diffraction optics are configured to output the received light by diffracting the received light, wherein a majority of the light output is directed towards an offset region laterally offset from the light detector by at least a second lateral offset, D, in the first direction, wherein the second lateral offset, D, is greater than the first lateral offset, and overlaps and extends beyond the first lateral offset, wherein the diffraction optics has a first side towards the light source and a second side towards the offset region, wherein the first side comprises a light in-coupling region , the light in-coupling region being provided by a diffractive structure, and the second side comprises a light out coupling region , the light out-coupling region being provided by a diffractive structure, and wherein the light in-coupling region is configured to in-couple the received light at a first angle from a normal to the light in-coupling region and the light out-coupling region is configured to out-couple the light at a second angle (θ) from a normal to the out-coupling region, towards the offset region , and wherein the second angle (θ) is greater than the first angle, and wherein the light detector is configured to detect the light reflected from the offset region. a light detector ; a light source , laterally offset from the light detector by a first lateral offset, d, in a first direction, defined from the light detector to the light source; diffraction optics configured to receive light emitted by the light source and output the received light, wherein the diffraction optics are configured to output the received light by diffracting the received light, wherein a majority of the light output is directed towards an offset region laterally offset from the light detector by at least a second lateral offset, D, in the first direction, wherein the second lateral offset, D, is greater than the first lateral offset, and overlaps and extends beyond the first lateral offset, wherein the diffraction optics has a first side towards the light source and a second side towards the offset region, wherein the first side comprises a light in-coupling region , the light in-coupling region being provided by a diffractive structure, and the second side comprises a light out coupling region , the light out-coupling region being provided by a diffractive structure, and wherein the light in-coupling region is configured to in-couple the received light at a first angle from a normal to the light in-coupling region and the light out-coupling region is configured to out-couple the light at a second angle (θ) from a normal to the out-coupling region, towards the offset region , and wherein the second angle (θ) is greater than the first angle, and wherein the light detector is configured to detect the light reflected from the offset region.
A peristaltic pump 100 comprising: a plunger 110 movable to selectively engage a pumping volume 107 of a tubing segment 102 to expand the pumping volume to draw fluid flow into the pumping volume and to contract the pumping volume to conduct fluid flow from the pumping volume, an upper valve 120 movable to selectively engage an upstream portion 106 of the tubing segment; a lower valve 130 movable to selectively engage a downstream portion 108 of the tubing segment; characterized by : wherein the plunger defines a feeler slot 115 extending through the plunger; a feeler pin 190 disposed partially above the plunger, extending through the plunger via the feeler slot, and movable to maintain contact with the tubing segment, wherein the feeler pin is movable in response to a height of the pumping volume; a feeler pin bracket 191, wherein the feeler pin extends through the feeler pin bracket, and the feeler pin bracket constrains movement of the feeler pin in an axis transverse to the longitudinal axis of the tubing segment; a biasing member 196 coupled to the feeler pin, wherein the biasing member is configured to urge the feeler pin toward the tubing segment; and a position transducer 194 configured to detect the position of the feeler pin, wherein the feeler pin comprises a trigger portion 192, and the position transducer is configured to detect the position of the trigger portion. wherein the plunger defines a feeler slot 115 extending through the plunger; a feeler pin 190 disposed partially above the plunger, extending through the plunger via the feeler slot, and movable to maintain contact with the tubing segment, wherein the feeler pin is movable in response to a height of the pumping volume; a feeler pin bracket 191, wherein the feeler pin extends through the feeler pin bracket, and the feeler pin bracket constrains movement of the feeler pin in an axis transverse to the longitudinal axis of the tubing segment; a biasing member 196 coupled to the feeler pin, wherein the biasing member is configured to urge the feeler pin toward the tubing segment; and a position transducer 194 configured to detect the position of the feeler pin, wherein the feeler pin comprises a trigger portion 192, and the position transducer is configured to detect the position of the trigger portion.
An electrical accessory for installing on a wall, the electrical accessory comprising: • a support portion that is adapted to be fastened to the wall and that comprises at least one electrical box; • an electrical unit comprising at least one base that houses an electrical mechanism and that is provided with at least one snap-fastener tab that is adapted to be snap-fastened on said support portion ; and • a front portion comprising at least one front wall and at least one tongue that extends at the rear of said front wall and that is adapted to fasten said front wall to said electrical unit ; the electrical accessory being characterized in that said tongue is adapted to be interposed between said snap-fastener tab and a rigid portion that is secured with the base of the electrical unit , said tongue having a shape of a plate with a first face suitable to come into contact with said snap-fastener tab and a second face suitable to come into contact with said rigid portion, and characterized in that said tongue includes at least one serration , and wherein said base and/or said rigid portion includes at least one rib on which said serration is adapted to catch. • a support portion that is adapted to be fastened to the wall and that comprises at least one electrical box; • an electrical unit comprising at least one base that houses an electrical mechanism and that is provided with at least one snap-fastener tab that is adapted to be snap-fastened on said support portion ; and • a front portion comprising at least one front wall and at least one tongue that extends at the rear of said front wall and that is adapted to fasten said front wall to said electrical unit ;
A system , comprising: a memory configured to store a machine learning, ML, model ; and a processor , which is configured to: obtain a set of training audio signals that are labeled with respective levels of distortion; convert the training audio signals into respective first images, wherein the conversion of a given audio training signal into respective first images comprises setting pixel values of the first images to represent an amplitude of the given training audio signal as a function of time; train the ML model to estimate the levels of the distortion based on the respective first images; receive an input audio signal ; convert the input audio signal into a second image ; estimate a level of the distortion in the input audio signal , by applying the trained ML model to the second image . a memory configured to store a machine learning, ML, model ; and a processor , which is configured to: obtain a set of training audio signals that are labeled with respective levels of distortion; convert the training audio signals into respective first images, wherein the conversion of a given audio training signal into respective first images comprises setting pixel values of the first images to represent an amplitude of the given training audio signal as a function of time; train the ML model to estimate the levels of the distortion based on the respective first images; receive an input audio signal ; convert the input audio signal into a second image ; estimate a level of the distortion in the input audio signal , by applying the trained ML model to the second image . obtain a set of training audio signals that are labeled with respective levels of distortion; convert the training audio signals into respective first images, wherein the conversion of a given audio training signal into respective first images comprises setting pixel values of the first images to represent an amplitude of the given training audio signal as a function of time; train the ML model to estimate the levels of the distortion based on the respective first images; receive an input audio signal ; convert the input audio signal into a second image ; estimate a level of the distortion in the input audio signal , by applying the trained ML model to the second image .
A method for automatically assigning numeric labels to teeth in a dental arch map comprising: providing (S110) a segmented 3D surface image of patient dentition comprising identified individual teeth and determined tooth position in the dental arch; defining (S120) a tooth contour for the identified teeth; identifying the tooth type as one of incisor, canine, premolar, molar, or supernumerary tooth; labeling (S130) a display of the tooth contour with an assigned tooth number according to the tooth position, tooth contour, and tooth type; and displaying (S140) the labeled mapping. providing (S110) a segmented 3D surface image of patient dentition comprising identified individual teeth and determined tooth position in the dental arch; defining (S120) a tooth contour for the identified teeth; identifying the tooth type as one of incisor, canine, premolar, molar, or supernumerary tooth; labeling (S130) a display of the tooth contour with an assigned tooth number according to the tooth position, tooth contour, and tooth type; and displaying (S140) the labeled mapping.