mhurhangee/patent-ind-claim-en huggingface dataset:
A method, comprising: extracting, from a first georeferenced image acquired externally from a vehicle with a first image-capture device, an image portion having dimensions of a second image of a surface area acquired by a second image-capture device comprising a camera on-board the vehicle; normalizing a spatial resolution of the image portion, wherein the spatial resolution is normalized so that the spatial resolution of the image portion matches the spatial resolution of the second image acquired by the second image-capture device; determining at least one edge of at least one object in the normalized image portion; generating, in response to the determined at least one edge, a first edge map corresponding to the image portion; generating a second edge map based on the second image; and computing and/or correcting at least one navigation parameter of the vehicle based on a comparison of the first edge map with the second edge map. extracting, from a first georeferenced image acquired externally from a vehicle with a first image-capture device, an image portion having dimensions of a second image of a surface area acquired by a second image-capture device comprising a camera on-board the vehicle; normalizing a spatial resolution of the image portion, wherein the spatial resolution is normalized so that the spatial resolution of the image portion matches the spatial resolution of the second image acquired by the second image-capture device; determining at least one edge of at least one object in the normalized image portion; generating, in response to the determined at least one edge, a first edge map corresponding to the image portion; generating a second edge map based on the second image; and computing and/or correcting at least one navigation parameter of the vehicle based on a comparison of the first edge map with the second edge map.
A degradation indicator for a component having one or more elastomeric elements , the indicator comprising: an indicator element in communication with at least a portion of the one or more elastomeric elements ; wherein the indicator element is configured to show a visible degradation or damage when a specific and predetermined condition of the one or more elastomeric elements is reached; wherein the indicator element is in communication with a portion of the one or more elastomeric elements that is configured to experience damage first within the one or more elastomeric elements characterised in that the indicator element comprises at least one structural feature that is configured to accelerate the rate at which damage is incurred under normal operating loads on the portion of the one or more elastomeric elements . an indicator element in communication with at least a portion of the one or more elastomeric elements ; wherein the indicator element is configured to show a visible degradation or damage when a specific and predetermined condition of the one or more elastomeric elements is reached; wherein the indicator element is in communication with a portion of the one or more elastomeric elements that is configured to experience damage first within the one or more elastomeric elements characterised in that the indicator element comprises at least one structural feature that is configured to accelerate the rate at which damage is incurred under normal operating loads on the portion of the one or more elastomeric elements .
A dextrogyrate compound of formula (I), or a pharmaceutically acceptable salt thereof, in the form of a single axially chiral isomer or enriched in an axially chiral isomer, "enriched in an axially chiral isomer" refers to the content of one of the axially chiral isomers is<100%, and ≥95%;
Nebulizer for aerosolizing a liquid comprising : - a nebulizer body comprising : . a reservoir part for receiving a liquid to be aerosolized, . an aerosol-generating system for generating an aerosol containing said liquid, and . a nebulization chamber for receiving aerosol generated by the aerosol-generating system , - a breath-enhanced valve system comprising several valves, and - a nasal interface comprising a hollow body defining an inner chamber , and two nasal prongs to be inserted into the nostrils of a user , each nasal prong comprising an inner channel in fluid communication with the inner chamber of said hollow body of the nasal interface , and wherein : - the nasal interface is detachably fixed to the nebulizer body , - the inner chamber of the hollow body of the nasal interface is in fluid communication with the nebulization chamber of the nebulizer body for receiving aerosol provided by the nebulization chamber , and - the hollow body and the two nasal prongs of the nasal interface are made of a flexible soft material. - a nebulizer body comprising : . a reservoir part for receiving a liquid to be aerosolized, . an aerosol-generating system for generating an aerosol containing said liquid, and . a nebulization chamber for receiving aerosol generated by the aerosol-generating system , . a reservoir part for receiving a liquid to be aerosolized, . an aerosol-generating system for generating an aerosol containing said liquid, and . a nebulization chamber for receiving aerosol generated by the aerosol-generating system , - a breath-enhanced valve system comprising several valves, and - a nasal interface comprising a hollow body defining an inner chamber , and two nasal prongs to be inserted into the nostrils of a user , each nasal prong comprising an inner channel in fluid communication with the inner chamber of said hollow body of the nasal interface , - the nasal interface is detachably fixed to the nebulizer body , - the inner chamber of the hollow body of the nasal interface is in fluid communication with the nebulization chamber of the nebulizer body for receiving aerosol provided by the nebulization chamber , and - the hollow body and the two nasal prongs of the nasal interface are made of a flexible soft material.
An iron-manganese alloy comprising, by weight: 25.0 % ≤ Mn ≤ 32.0 % 7.0 % ≤ Cr ≤ 14.0 % 0.5 % ≤ Ni ≤ 2.5 % 0.05 % ≤ N ≤ 0.30 % 0.1 % ≤ Si ≤ 0.5 % 0.010 % ≤ rare earths ≤ 0.14 % the remainder being iron and residual elements resulting from manufacturing, the residual elements comprising one or more elements selected from among: carbon, aluminium, selenium, sulfur, phosphorus, oxygen, cobalt, copper, molybdenum, tin, niobium, vanadium, titanium and lead, the maximum contents by weight of each of these elements being selected as follows: C ≤ 0.05% Al ≤ 0.02% Se ≤ 0.02%. S ≤ 0.005% P ≤ 0.04% O ≤ 0.005% Co ≤ 0.2% Cu ≤ 0.2% Mo ≤ 0.2% Sn ≤ 0.02% Nb ≤ 0.02% V ≤ 0.02% Ti ≤ 0.02% Pb <_ 0.001%. C ≤ 0.05% Al ≤ 0.02% Se ≤ 0.02%. S ≤ 0.005% P ≤ 0.04% O ≤ 0.005% Co ≤ 0.2% Cu ≤ 0.2% Mo ≤ 0.2% Sn ≤ 0.02% Nb ≤ 0.02% V ≤ 0.02% Ti ≤ 0.02% Pb <_ 0.001%.
A method for determining information on a transit of an object through a detection plane, the object emitting a magnetic field in response to an exciting electromagnetic field, comprising: exciting an oscillating circuit of the object at a first frequency to emit the magnetic field, wherein the first frequency corresponds to a resonance frequency of the oscillating circuit, and wherein the oscillating circuit of the object is coupled with first loop antennas of the object; monitoring a receive signal of at least one second loop antenna, the receive signal having a contribution caused by the emitted magnetic field, wherein the at least one second loop antenna is arranged perpendicular and symmetrical to the detection plane, and wherein the object is within a near field distance of the at least one second loop antenna; determining a first quadrature component of the receive signal; and characterised in determining the information on the transit of the object through the detection plane based on the first quadrature component and without taking into account an in-phase component of the receive signal. exciting an oscillating circuit of the object at a first frequency to emit the magnetic field, wherein the first frequency corresponds to a resonance frequency of the oscillating circuit, and wherein the oscillating circuit of the object is coupled with first loop antennas of the object; monitoring a receive signal of at least one second loop antenna, the receive signal having a contribution caused by the emitted magnetic field, wherein the at least one second loop antenna is arranged perpendicular and symmetrical to the detection plane, and wherein the object is within a near field distance of the at least one second loop antenna; determining a first quadrature component of the receive signal; and characterised in determining the information on the transit of the object through the detection plane based on the first quadrature component and without taking into account an in-phase component of the receive signal.
A method for reporting a scheduling request, the method comprising: generating uplink control information, UCI; applying modulation scheme to the UCI based on narrowband physical uplink shared channel, NPUSCH, format 2; generating a sequence of modulation symbols by mapping a code word b SR among two code words for a scheduling request to modulation symbols a symb generated based on the modulation scheme for the UCI as a symb ( i ) b SR ( i ) ,i = 0,1,...,15, in case that the scheduling request is to be transmitted using the NPUSCH format 2; and transmitting the UCI with the code for the scheduling request on a NPUSCH. generating uplink control information, UCI; applying modulation scheme to the UCI based on narrowband physical uplink shared channel, NPUSCH, format 2; generating a sequence of modulation symbols by mapping a code word b SR among two code words for a scheduling request to modulation symbols a symb generated based on the modulation scheme for the UCI as a symb ( i ) b SR ( i ) ,i = 0,1,...,15, in case that the scheduling request is to be transmitted using the NPUSCH format 2; and transmitting the UCI with the code for the scheduling request on a NPUSCH.
Cushioning element (100; 400; 505; 600; 700; 800; 905) for sports apparel, comprising: a. a first deformation element (110; 410; 510; 610; 710; 810; 910) comprising a plurality of randomly arranged particles (120; 200; 820; 920) of an expanded material; b. wherein there are first voids (130; 230; 830; 930) between the particles (120; 200; 820; 920); and characterized in that c. the first voids (130; 230; 830; 930) form one or more cavities in which air is trapped. a. a first deformation element (110; 410; 510; 610; 710; 810; 910) comprising a plurality of randomly arranged particles (120; 200; 820; 920) of an expanded material; b. wherein there are first voids (130; 230; 830; 930) between the particles (120; 200; 820; 920); and characterized in that c. the first voids (130; 230; 830; 930) form one or more cavities in which air is trapped.
A canopy for a direct drive wind turbine, the canopy comprising an interface section configured for mechanically coupling the canopy to a generator , wherein the interface section comprises at least one outlet configured to receive cooling fluid exhausted by the generator and eject the received cooling fluid, wherein the interface section comprises a tubular member extending in the axial direction of the wind turbine.
Energy transmission system for a water pipe of a sanitary installation, comprising a generator unit with a power supply unit , which generator unit can be arranged at a first location of the water pipe , and at least one consumer unit with at least one consumer (20; 200), which consumer unit can be arranged at a second location of the water pipe spaced apart from the first location, wherein the generator unit comprises a pressure surge generator connected to the power supply unit , with which pressure surge generator pressure surges can be generated which pressure surges can be introduced into the water present in the water pipe , and wherein the consumer unit comprises a pressure surge converter connected to the at least one consumer (20; 200), by means of which pressure surge converter the pressure surges introduced into the water can be converted into electrical energy which can be supplied to the at least one consumer (20; 200), and wherein the consumer unit comprises a storage with which the electrical energy provided by the pressure surge converter can be stored. the generator unit comprises a pressure surge generator connected to the power supply unit , with which pressure surge generator pressure surges can be generated which pressure surges can be introduced into the water present in the water pipe , and wherein the consumer unit comprises a pressure surge converter connected to the at least one consumer (20; 200), by means of which pressure surge converter the pressure surges introduced into the water can be converted into electrical energy which can be supplied to the at least one consumer (20; 200), and wherein the consumer unit comprises a storage with which the electrical energy provided by the pressure surge converter can be stored.
A method of positioning and drilling an opening configured to receive a fastener , characterised in that the method comprises: forming a plurality of peen marks in a predetermined pattern on a workpiece at a location at which the opening is to be drilled; identifying , with a robotic vision system , the plurality of peen marks on the workpiece ; and drilling the opening configured to receive the fastener at the location designated by the the plurality of peen marks ; wherein the plurality of peen marks is collectively smaller than the opening drilled at the location. forming a plurality of peen marks in a predetermined pattern on a workpiece at a location at which the opening is to be drilled; identifying , with a robotic vision system , the plurality of peen marks on the workpiece ; and drilling the opening configured to receive the fastener at the location designated by the the plurality of peen marks ; wherein the plurality of peen marks is collectively smaller than the opening drilled at the location.
Method for adapting a heating power of at least one heating element of a domestic appliance , in particular a food processor for at least partially automatic preparation of food, wherein the domestic appliance comprises a temperature sensor for measuring a temperature (T) at a receiving space of the domestic appliance , wherein the following steps are provided: a) performing a heating phase (A) with such a heating power adjustment that the temperature (T) aims at a predetermined set temperature (S), b) performing a temperature holding phase (B) when the temperature (T) has reached the set temperature (S), wherein heating power limitation occurs in the temperature holding phase (B), c) performing at least one evaluation of the temperature (T) based on the set temperature (S) during the temperature holding phase (B) so that an evaluation result is determined, d) performing a stabilization phase (C) when the evaluation result satisfies a stabilization criterion, wherein in the stabilization phase (C) the heating power adjustment occurs in such a way that the temperature (T) aims at a certain stabilization temperature (ST), wherein the stabilization temperature (ST) is greater than the set temperature (S). a) performing a heating phase (A) with such a heating power adjustment that the temperature (T) aims at a predetermined set temperature (S), b) performing a temperature holding phase (B) when the temperature (T) has reached the set temperature (S), wherein heating power limitation occurs in the temperature holding phase (B), c) performing at least one evaluation of the temperature (T) based on the set temperature (S) during the temperature holding phase (B) so that an evaluation result is determined, d) performing a stabilization phase (C) when the evaluation result satisfies a stabilization criterion, wherein in the stabilization phase (C) the heating power adjustment occurs in such a way that the temperature (T) aims at a certain stabilization temperature (ST), wherein the stabilization temperature (ST) is greater than the set temperature (S).
A heating device suitable for an electronic cigarette, the device comprising a heating cup and a magnetic induction coil , wherein the magnetic induction coil is a curved square vertically disposed with respect to the heating cup ; and the heating cup is attached to a concave surface of the magnetic induction coil ; characterized in that the heating cup is made of glass, and a metal is disposed in a cavity of a side wall of the heating cup .
A method for performing threat detection, comprising: receiving , at a threat analytics system , aggregated event data from a client system , the aggregated event data comprising aggregated event data structures respectively being a Bloom filter , each of the aggregated event data structures associated with a given time period and comprising event data associated with a plurality of different events occurring on the client system in the given time period, the aggregated event data including an obfuscated representation of entity identifiers associated with each of the plurality of different events occurring on the client system ; in response to receiving the aggregated event data, storing, at the threat analytics system , the aggregated event data organized as a time-based hierarchy of the aggregated event data structures, the aggregated event data structures having different levels of time-based granularity in accordance with the respective given time period; in response to storing the aggregated event data, determining , at the threat analytics system , a subset of the event data stored in an aggregated event data structure of the aggregated event data structures having a lowest level of time-based granularity and that is associated with at least one cyber-threat; and reporting a message, by the threat analytics system , indicating the presence of the at least one cyber-threat for each event of the subset to the client system . receiving , at a threat analytics system , aggregated event data from a client system , the aggregated event data comprising aggregated event data structures respectively being a Bloom filter , each of the aggregated event data structures associated with a given time period and comprising event data associated with a plurality of different events occurring on the client system in the given time period, the aggregated event data including an obfuscated representation of entity identifiers associated with each of the plurality of different events occurring on the client system ; in response to receiving the aggregated event data, storing, at the threat analytics system , the aggregated event data organized as a time-based hierarchy of the aggregated event data structures, the aggregated event data structures having different levels of time-based granularity in accordance with the respective given time period; in response to storing the aggregated event data, determining , at the threat analytics system , a subset of the event data stored in an aggregated event data structure of the aggregated event data structures having a lowest level of time-based granularity and that is associated with at least one cyber-threat; and reporting a message, by the threat analytics system , indicating the presence of the at least one cyber-threat for each event of the subset to the client system .
A surgical system comprising: a tubular shaft having a proximal end and a distal end ; a first jaw and a second jaw pivotally attached at the distal end of the tubular shaft ; and at least one light emitter and at least one light sensor , the at least one light emitter being attached to the first jaw and the at least one light sensor being attached to the second jaw , each of the at least one light emitter and at least one light sensor coupled to at least one lead , characterized by the first and second jaws having inwardly facing surfaces that define at least in part one or more clearances in which the at least one lead coupled to the at least one light emitter and the at least one lead coupled to the at least one light sensor are disposed, wherein a spacer is disposed between the inwardly facing surfaces of the first and second jaws , the inwardly facing surfaces and the spacer defining the one or more clearances in which the at least one lead coupled to the at least one light emitter and the at least one lead coupled to the at least one light sensor are disposed. a tubular shaft having a proximal end and a distal end ; a first jaw and a second jaw pivotally attached at the distal end of the tubular shaft ; and at least one light emitter and at least one light sensor , the at least one light emitter being attached to the first jaw and the at least one light sensor being attached to the second jaw , each of the at least one light emitter and at least one light sensor coupled to at least one lead , characterized by the first and second jaws having inwardly facing surfaces that define at least in part one or more clearances in which the at least one lead coupled to the at least one light emitter and the at least one lead coupled to the at least one light sensor are disposed, wherein a spacer is disposed between the inwardly facing surfaces of the first and second jaws , the inwardly facing surfaces and the spacer defining the one or more clearances in which the at least one lead coupled to the at least one light emitter and the at least one lead coupled to the at least one light sensor are disposed.
A moving vehicle for placing marks such as paint or another marking material onto the surface of a roadway, the moving vehicle comprising: a GPS-based machine vision locator positioned on the vehicle for automatically sampling discrete geographical location data of an actual pre-existing roadway mark evident on the roadway before the mark is removed; characterized in that the vehicle further comprises a marker positioned on the vehicle , having a GPS geographical location, and being responsive to the GPS-based machine vision locator and geographical location function for replicating automatically the pre-existing roadway mark onto the surface of the roadway; and a feedback system comparing the GPS geographical location of the marker and the geographical location function and correcting the position of the marker if the comparison identifies an error, and a computer including (a) a sampling program which receives a GPS reference location and constructs a grid system having the origin defined at the reference location and further, based upon the constructed grid system and a sampling interval, samples the geographical location of the pre-existing roadway mark, and (b) a curve fitting program which inputs discrete GPS coordinate data stored in data memory and determines a continuous smooth geographical location function best-fitted to the sampled geographical location data. a GPS-based machine vision locator positioned on the vehicle for automatically sampling discrete geographical location data of an actual pre-existing roadway mark evident on the roadway before the mark is removed; characterized in that the vehicle further comprises a marker positioned on the vehicle , having a GPS geographical location, and being responsive to the GPS-based machine vision locator and geographical location function for replicating automatically the pre-existing roadway mark onto the surface of the roadway; and