mhurhangee/patent-ind-claim-en huggingface dataset:
A Metal-Oxide-Semiconductor, MOS, varactor structure comprising: a semiconductor body having a well region, and a plurality of gate electrodes (3a-3d) and a plurality of cathode electrodes arranged over the well region, wherein the plurality of cathode electrodes are connected by a cathode connection pattern, the cathode connection pattern comprising a plurality of arms , each of the plurality of arms arranged to extend over a part of a respective gate electrode (3a-3d), wherein the gate electrodes (3a-3d) are L-shaped and have two end parts either side of a central part, wherein the arms of the cathode connection pattern are arranged to extend over the central part of the L-shaped gate electrodes and wherein the end parts of the L-shaped gate electrodes provide a connection point for a gate connection pattern of the MOS varactor structure, wherein the L-shaped gate electrodes (3a-3d) are electrically separated from one another, and further including a first gate connection pattern and a second gate connection pattern , wherein the gate connection patterns extend in spaced first and second layers, wherein the first gate connection pattern is configured to provide an interconnection for a first subset of the gate electrodes (3a-3d) and the second gate connection pattern is configured to provide an interconnection for a second subset of the gate electrodes (3a-3d), wherein the second subset comprises the gate electrodes outside the first subset. a semiconductor body having a well region, and a plurality of gate electrodes (3a-3d) and a plurality of cathode electrodes arranged over the well region, wherein the plurality of cathode electrodes are connected by a cathode connection pattern, the cathode connection pattern comprising a plurality of arms , each of the plurality of arms arranged to extend over a part of a respective gate electrode (3a-3d), wherein the gate electrodes (3a-3d) are L-shaped and have two end parts either side of a central part, wherein the arms of the cathode connection pattern are arranged to extend over the central part of the L-shaped gate electrodes and wherein the end parts of the L-shaped gate electrodes provide a connection point for a gate connection pattern of the MOS varactor structure, wherein the L-shaped gate electrodes (3a-3d) are electrically separated from one another, and further including a first gate connection pattern and a second gate connection pattern , wherein the gate connection patterns extend in spaced first and second layers, wherein the first gate connection pattern is configured to provide an interconnection for a first subset of the gate electrodes (3a-3d) and the second gate connection pattern is configured to provide an interconnection for a second subset of the gate electrodes (3a-3d), wherein the second subset comprises the gate electrodes outside the first subset.
A vehicle seat (S) with a seat cushion , a seat back (S2) and a reclining mechanism (RL) by which the seat back (S2) is supported rotatably relative to the seat cushion , the vehicle seat (S) comprising: a pair of side frames (11; 21); a duct (D) extending from the seat cushion (S1) along a rear side of a frame (F1) of the seat cushion (S1) toward the seat back (S2) and connecting an air passage (A1, A2) and a blower , the air passage (A1, A2) being formed in at least one of the seat cushion (S1) and the seat back (S2); and a side frame cover including a side frame cover portion configured to cover at least part of the side frame (11; 21), wherein the side frame cover further includes a duct cover portion configured to cover at least part of the duct (D) at the rear side of the frame (F1) of the seat cushion , and a reclining mechanism cover portion configured to cover the reclining mechanism (RL), wherein the side frame cover is made of plastic, wherein the side frame cover portion , the duct cover portion and the reclining mechanism cover portion are formed integrally in one piece, and wherein the duct cover portion includes a first side cover portion extending from a rear end of the side frame cover portion rearward, and a rear cover portion extending from a rear end of the first side cover portion laterally inward and having a cross-sectional shape of an arc jutting in an obliquely-rearward-and-downward direction. a pair of side frames (11; 21); a duct (D) extending from the seat cushion (S1) along a rear side of a frame (F1) of the seat cushion (S1) toward the seat back (S2) and connecting an air passage (A1, A2) and a blower , the air passage (A1, A2) being formed in at least one of the seat cushion (S1) and the seat back (S2); and a side frame cover including a side frame cover portion configured to cover at least part of the side frame (11; 21), wherein the side frame cover further includes a duct cover portion configured to cover at least part of the duct (D) at the rear side of the frame (F1) of the seat cushion , and a reclining mechanism cover portion configured to cover the reclining mechanism (RL), wherein the side frame cover is made of plastic, wherein the side frame cover portion , the duct cover portion and the reclining mechanism cover portion are formed integrally in one piece, and wherein the duct cover portion includes a first side cover portion extending from a rear end of the side frame cover portion rearward, and a rear cover portion extending from a rear end of the first side cover portion laterally inward and having a cross-sectional shape of an arc jutting in an obliquely-rearward-and-downward direction.
An ethylene polymer having: (i) a density defined by equation ρ > a − b Log M where ρ is a density of the polymer in g/cc, log M is a log weight average molecular weight of the polymer, a is 1.0407 and b is 0.0145; and (ii) a polydispersity index of greater than 7, wherein the density is greater than 0.966 g/cc and wherein a film formed from the composition displays a moisture vapor transmission rate of less than 305 g.mm/m 2 /day (0.5 grams-mil per 100 square inch per day).
Method for selectively separating out free-flowing products which are conveyed in a conveying direction along a conveying path in a conveying track , wherein the conveyed products are checked in a monitoring portion of the conveying path by means of a monitoring device , and wherein in a separating-out portion arranged downstream along the conveying path that product which does not meet a presettable monitoring criterion is separated out and carried away from the conveying track using a suction device in that the suction device is arranged on the conveying path and for a preset suction period a suction flow flowing away out of the conveying track is produced in order to remove the product from the conveying track by suction, characterised in that the monitoring device is used to check whether a second product which likewise does not meet the preset monitoring criterion and therefore is likewise to be separated out succeeds the first product which is to be separated out, and in that the suction period is extended by a presettable extension period in order also to remove the subsequent second product by suction from the conveying track without interruption. by means of a monitoring device , and wherein in a separating-out portion arranged downstream along the conveying path that product which does not meet a presettable monitoring criterion is separated out and carried away from the conveying track using a suction device in that the suction device is arranged on the conveying path and for a preset suction period a suction flow flowing away out of the conveying track is produced in order to remove the product from the conveying track by suction, characterised in that the monitoring device is used to check whether a second product which likewise does not meet the preset monitoring criterion and therefore is likewise to be separated out succeeds the first product which is to be separated out, and in that the suction period is extended by a presettable extension period in order also to remove the subsequent second product by suction from the conveying track without interruption.
A bacterial strain deposited on October 24, 2018, at the Collection Nationale de Culture de Microorganismes (CNCM), 28 rue du Dr. Roux, 75724 PARIS CEDEX 15, under the Budapest Treaty under number CNCM I-5372.
A flexible packaging comprising: a substrate base layer ; and a film layer at least partially releasably affixed to the substrate base layer via a pressure sensitive adhesive layer, the pressure sensitive adhesive layer comprising: at least one adhesive zone, characterized in that : the flexible packaging further comprises at least one continuously extending adhesive-free zone that extends continuously in a machine direction that is disposed in the center of the flexible packaging or to the left or right thereof; wherein the film layer is scored to form at least one pull tab which is disposed within the at least one adhesive-free zone , and to form at least one resealable flap continuous with the at least one pull tab ; and wherein the substrate base layer is scored to form at least one cavity which is disposed adjacent the at least one adhesive-free zone . a substrate base layer ; and a film layer at least partially releasably affixed to the substrate base layer via a pressure sensitive adhesive layer, the pressure sensitive adhesive layer comprising: at least one adhesive zone, the flexible packaging further comprises at least one continuously extending adhesive-free zone that extends continuously in a machine direction that is disposed in the center of the flexible packaging or to the left or right thereof; wherein the film layer is scored to form at least one pull tab which is disposed within the at least one adhesive-free zone , and to form at least one resealable flap continuous with the at least one pull tab ; and wherein the substrate base layer is scored to form at least one cavity which is disposed adjacent the at least one adhesive-free zone .
A pharmaceutical composition for use in the improvement, prevention or treatment of pruritus, comprising a compound represented by Formula 1 or Formula 2, or a pharmaceutically acceptable salt thereof as an active ingredient, wherein, in the formulae, R is hydrogen or C 1-4 alkyl.
A ceramic electronic component comprising: a ceramic body ; a first internal electrode provided in the ceramic body, and exposed at one end surface of the ceramic body; a second internal electrode provided in the ceramic body, and exposed at the other end surface of the ceramic body; a first external electrode provided on the one end surface of the ceramic body and electrically connected to the first internal electrode; and a second external electrode provided on the other end surface of the ceramic body and electrically connected to the second internal electrode, wherein the ceramic electronic component comprises, between the external electrode and the internal electrode, a columnar structure that provides electrical conduction at least between the external electrode and the internal electrode, the ceramic electronic component comprises, on both sides of the columnar structure, a glass accumulation formed in contact with the columnar structure, characterized in that a difference between a basicity of the ceramic body and a basicity of a glass component included in the glass accumulation has an absolute value of 0.02 or more, wherein the basicity of the ceramic body and the basicity of the glass component are calculated by a method disclosed in the paragraphs - of the description. a ceramic body ; a first internal electrode provided in the ceramic body, and exposed at one end surface of the ceramic body; a second internal electrode provided in the ceramic body, and exposed at the other end surface of the ceramic body; a first external electrode provided on the one end surface of the ceramic body and electrically connected to the first internal electrode; and a second external electrode provided on the other end surface of the ceramic body and electrically connected to the second internal electrode, wherein the ceramic electronic component comprises, between the external electrode and the internal electrode, a columnar structure that provides electrical conduction at least between the external electrode and the internal electrode, the ceramic electronic component comprises, on both sides of the columnar structure, a glass accumulation formed in contact with the columnar structure, characterized in that a difference between a basicity of the ceramic body and a basicity of a glass component included in the glass accumulation has an absolute value of 0.02 or more, wherein the basicity of the ceramic body and the basicity of the glass component are calculated by a method disclosed in the paragraphs - of the description.
A computer-implemented method for analyzing log files in a distributed computer system, comprising: - receiving, by a log analyzer , a plurality of log entries from a log repository , where each log entry describes an event which occurred during execution of an application ; - for each log entry in the plurality of log entries, capturing, by one or more sensors , a given call point descriptor associated with a given log entry during execution of the application on a host computing device , where the call point descriptor identifies a location within the application from which the given log entry originated and the one or more sensors is instrumented into the application ; - storing call point descriptors for each log entry in log file metadata , where the log file metadata is separate and distinct from a log file comprising the log entries; - grouping, by the log analyzer , log entries according to the captured call point descriptors ; and - reporting, by the log analyzer , grouped log entries to a system user , where the log analyzer is implemented by computer executable instructions executed by a computer processor of a monitoring computer . - receiving, by a log analyzer , a plurality of log entries from a log repository , where each log entry describes an event which occurred during execution of an application ; - for each log entry in the plurality of log entries, capturing, by one or more sensors , a given call point descriptor associated with a given log entry during execution of the application on a host computing device , where the call point descriptor identifies a location within the application from which the given log entry originated and the one or more sensors is instrumented into the application ; - storing call point descriptors for each log entry in log file metadata , where the log file metadata is separate and distinct from a log file comprising the log entries; - grouping, by the log analyzer , log entries according to the captured call point descriptors ; and - reporting, by the log analyzer , grouped log entries to a system user , where the log analyzer is implemented by computer executable instructions executed by a computer processor of a monitoring computer .
A nano-structure, comprising: an operational area; a plurality of ridges; a plurality of trenches, each trench being defined by two adjacent ridges; and an outer area at an edge of the nano-structure, wherein: a width of the outer area defined by a distance from the edge of the nano-structure is less than 100 μm; a depth of trenches in the outer area changes gradually between 0% and at least 50% of a maximum depth of trenches in the operational area of the nano-structure, to limit damage to at least one of a mold or the nano-structure during nanoimprinting. an operational area; a plurality of ridges; a plurality of trenches, each trench being defined by two adjacent ridges; and an outer area at an edge of the nano-structure, wherein: a width of the outer area defined by a distance from the edge of the nano-structure is less than 100 μm; a depth of trenches in the outer area changes gradually between 0% and at least 50% of a maximum depth of trenches in the operational area of the nano-structure, to limit damage to at least one of a mold or the nano-structure during nanoimprinting. a width of the outer area defined by a distance from the edge of the nano-structure is less than 100 μm; a depth of trenches in the outer area changes gradually between 0% and at least 50% of a maximum depth of trenches in the operational area of the nano-structure, to limit damage to at least one of a mold or the nano-structure during nanoimprinting.
A method for simulating the rendering of a make-up product on an image of the face of a subject, the method being implemented by a system comprising a computer and a memory storing a database of reference images comprising, for each of a plurality of reference individuals, an image of the face of the reference individual devoid of makeup and an image of the face of the same reference individual madeup with the makeup product, the method comprising the steps of : a. acquiring an image of the face of the subject devoid of makeup, b. processing the image to extract, for each of a plurality of spatial areas of each of a plurality of spatial frequency ranges of the image, first color feature values of the spatial area, wherein step b. comprises decomposing the image of the face into a plurality of spatial frequency ranges, to obtain a plurality of secondary images wherein each secondary image corresponds to one of the spatial frequency ranges, and processing each secondary image to extract, for each of a plurality of spatial areas of the secondary image, first color feature values of the spatial area, wherein spatial areas of secondary images correspond to the same part of the face of the subject, c. determining , among the database of reference images, a set comprising a plurality of reference individuals having, when wearing no makeup, color feature values in the corresponding spatial area similar to the first color feature values of the subject, d. determining , from the first color feature values of the subject, and from color feature values in the corresponding spatial area of the set of reference individuals with and without the makeup product, second color feature values, and e. generating a modified image of the face of the subject based on the second color feature values. a. acquiring an image of the face of the subject devoid of makeup, b. processing the image to extract, for each of a plurality of spatial areas of each of a plurality of spatial frequency ranges of the image, first color feature values of the spatial area, c. determining , among the database of reference images, a set comprising a plurality of reference individuals having, when wearing no makeup, color feature values in the corresponding spatial area similar to the first color feature values of the subject, d. determining , from the first color feature values of the subject, and from color feature values in the corresponding spatial area of the set of reference individuals with and without the makeup product, second color feature values, and e. generating a modified image of the face of the subject based on the second color feature values.
A topical, ocular, suspension formulation, comprising: a. a first active agent of Formula II: or a pharmaceutically acceptable salt thereof; b. a second active agent, or a pharmaceutically acceptable salt thereof, wherein the second active agent is nicotinic acid, nicotinamide, or vitamin K, or a combination thereof; and c. a pharmaceutically acceptable excipient; wherein the first active agent or the pharmaceutically acceptable salt thereof is present in about 0.005% to about 5.0% w/v. a. a first active agent of Formula II: or a pharmaceutically acceptable salt thereof; b. a second active agent, or a pharmaceutically acceptable salt thereof, wherein the second active agent is nicotinic acid, nicotinamide, or vitamin K, or a combination thereof; and c. a pharmaceutically acceptable excipient;
A method for measuring oil content of a fluid in a sensor cavity , comprising: using a dielectric sensor comprising (i) a first resonance circuit formed by a first capacitor , a first inductor , and a pair of electrodes attached to the sensor cavity , and (ii) a device configured to measure a resonance frequency of the first resonance circuit, measuring the oil content of the fluid in the sensor cavity; using one or more processors , determining whether the oil content is above or below a threshold; and in response to the determination that the oil content is below the threshold, using an eddy current sensor , comprising (i) a second resonance circuit formed by a second capacitor , and a second inductor configured to produce a magnetic field within the sensor cavity , and (ii) a device configured to measure a resonance frequency of the second resonance circuit, measuring the oil content of the fluid; wherein the components of the dielectric sensor and the eddy current sensor are external to the sensor cavity . using a dielectric sensor comprising (i) a first resonance circuit formed by a first capacitor , a first inductor , and a pair of electrodes attached to the sensor cavity , and (ii) a device configured to measure a resonance frequency of the first resonance circuit, measuring the oil content of the fluid in the sensor cavity; using one or more processors , determining whether the oil content is above or below a threshold; and in response to the determination that the oil content is below the threshold, using an eddy current sensor , comprising (i) a second resonance circuit formed by a second capacitor , and a second inductor configured to produce a magnetic field within the sensor cavity , and (ii) a device configured to measure a resonance frequency of the second resonance circuit, measuring the oil content of the fluid; wherein the components of the dielectric sensor and the eddy current sensor are external to the sensor cavity .
Coolant circuit for a self-propelled work machine comprising multiple electric drive components (8-19), comprising: - a coolant pump for generating a stream of coolant which circulates in the coolant circuit ; - a heat exchanger for dissipating thermal energy stored in the coolant; and - at least two circuit lines (4-7) which extend parallel to one another and are designed to guide the coolant past the drive components (8-19) respectively assigned to them, in order to absorb thermal energy; characterised by - at least one connecting line which fluidically connects at least two of the circuit lines (4-7), is designed to transfer coolant from a first circuit line (4-7) into a second circuit line (4-7) and has at least one valve for opening or closing the connecting line and/or for varying the volume flow of the coolant guided through the connecting line. - a coolant pump for generating a stream of coolant which circulates in the coolant circuit ; - a heat exchanger for dissipating thermal energy stored in the coolant; and - at least two circuit lines (4-7) which extend parallel to one another and are designed to guide the coolant past the drive components (8-19) respectively assigned to them, in order to absorb thermal energy; characterised by - at least one connecting line which fluidically connects at least two of the circuit lines (4-7), is designed to transfer coolant from a first circuit line (4-7) into a second circuit line (4-7) and has at least one valve for opening or closing the connecting line and/or for varying the volume flow of the coolant guided through the connecting line.