mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method of tracking a target object in an object recognition system, the method comprising: acquiring a plurality of images with a camera; acquiring offline map data, wherein the offline map data includes offline map data of the target object, wherein offline map data is generated prior to the acquiring the plurality of images; detecting the target object based on a comparison of features extracted from the acquired images with features contained in the offline map data; and simultaneously tracking the detected target object and dynamically building online map data from the plurality of images without modifying the offline map data, characterized in that tracking the target object includes selecting between the online map data and the offline map data based on a region size of the target object, wherein selecting between the online map data and the offline map data includes: computing the region size of the target object; selecting the offline map data for tracking and disabling the online map data if the region size of the target object is greater than a region threshold; and selecting the online map data for tracking and disabling the offline map data if the region size of the target object is not greater than the region threshold. acquiring a plurality of images with a camera; acquiring offline map data, wherein the offline map data includes offline map data of the target object, wherein offline map data is generated prior to the acquiring the plurality of images; detecting the target object based on a comparison of features extracted from the acquired images with features contained in the offline map data; and simultaneously tracking the detected target object and dynamically building online map data from the plurality of images without modifying the offline map data, characterized in that tracking the target object includes selecting between the online map data and the offline map data based on a region size of the target object, wherein selecting between the online map data and the offline map data includes: computing the region size of the target object; selecting the offline map data for tracking and disabling the online map data if the region size of the target object is greater than a region threshold; and selecting the online map data for tracking and disabling the offline map data if the region size of the target object is not greater than the region threshold. computing the region size of the target object; selecting the offline map data for tracking and disabling the online map data if the region size of the target object is greater than a region threshold; and selecting the online map data for tracking and disabling the offline map data if the region size of the target object is not greater than the region threshold.
A surge protector for protecting a load coupled to a power source, the surge protector comprising: an input having a first node, a second node and a third node to respectively couple to line, neutral, and ground connections of the power source; an output having a fourth node, a fifth node, and a sixth node for respectively coupling to line, neutral and ground connections of the load; a first voltage limiting circuit coupled between the fourth node and the fifth node; a first inductor coupled between the first node and the fourth node; a second voltage limiting circuit coupled between the first node and the second node; a third voltage limiting circuit coupled between the fifth node and the sixth node; a second inductor coupled between the second node and the fifth node; a fourth voltage limiting circuit coupled between the second node and the third node; and a fifth voltage limiting circuit coupled between the fourth node and the sixth node; characterized in that each of the first, second, third, fourth and fifth voltage limiting circuits has a trigger voltage, and wherein the trigger voltages of the second and fourth voltage limiting circuits is greater than the trigger voltages of the first, third and fifth voltage limiting circuits. an input having a first node, a second node and a third node to respectively couple to line, neutral, and ground connections of the power source; an output having a fourth node, a fifth node, and a sixth node for respectively coupling to line, neutral and ground connections of the load; a first voltage limiting circuit coupled between the fourth node and the fifth node; a first inductor coupled between the first node and the fourth node; a second voltage limiting circuit coupled between the first node and the second node; a third voltage limiting circuit coupled between the fifth node and the sixth node; a second inductor coupled between the second node and the fifth node; a fourth voltage limiting circuit coupled between the second node and the third node; and a fifth voltage limiting circuit coupled between the fourth node and the sixth node; characterized in that each of the first, second, third, fourth and fifth voltage limiting circuits has a trigger voltage, and wherein the trigger voltages of the second and fourth voltage limiting circuits is greater than the trigger voltages of the first, third and fifth voltage limiting circuits.
Method for metallising a porous structure made of carbon material, said method comprising the following steps: a) supplying a porous structure made of carbon material, b) immersing the porous structure in a solution comprising an ionic liquid, formed by a cation and an anion, and a metal precursor, c) placing the porous structure in a vacuum, immersed in the solution, in such a way as to cause the solution to penetrate into the porosity of the porous structure, d) adding a hydrogenated reducing agent, in such a way as to metallise the porous structure to within the porosity of the porous structure. a) supplying a porous structure made of carbon material, b) immersing the porous structure in a solution comprising an ionic liquid, formed by a cation and an anion, and a metal precursor, c) placing the porous structure in a vacuum, immersed in the solution, in such a way as to cause the solution to penetrate into the porosity of the porous structure, d) adding a hydrogenated reducing agent, in such a way as to metallise the porous structure to within the porosity of the porous structure.
A method for treating a mineral composition containing iron, arsenic or other Group VA compounds comprising milling the mineral composition to a particle size of P 80 of less than 25 μm and leaching said mineral composition in the presence of lime and/or limestone and a soluble alkali complexing agent and in the presence of an oxygen containing gas at a pH in the range of from 3.5 to 6.
A refrigeration cycle apparatus comprising a refrigerant circuit in which a compressor, a radiator, a supercooling heat exchanger, main expansion means and an evaporator are annularly connected to one another in this order, a bypass passage which branches off from the refrigerant circuit between the radiator and the main expansion means, and which is connected to the refrigerant circuit between the evaporator and the compressor or is connected to a compression chamber of the compressor through the supercooling heat exchanger, bypass expansion means provided in the bypass passage at a location upstream of the supercooling heat exchanger, a first temperature sensor which detects a temperature of a refrigerant discharged from the compressor, and a control device which operates the main expansion means such that the temperature detected by the first temperature sensor becomes equal to a predetermined target temperature, characterized in that the control device operates the bypass expansion means such that a refrigerant flowing through the bypass passage is brought into a saturated state at an outlet of the supercooling heat exchanger, and when the temperature detected by the first temperature sensor is higher than the predetermined target temperature, the control device operates the main expansion means in its opening degree-closing direction.
An article of a gas turbine engine comprising: a substrate; a plurality of cooling holes formed in the substrate; a grid of grooves in a surface of the substrate, wherein the grid of grooves comprises a first plurality of grooves oriented in a first direction and a second plurality of grooves oriented in a second direction, wherein the grooves from the first plurality of grooves intersect the grooves from the second plurality of grooves, wherein the grid of grooves defines a plurality of plateaus in the substrate, and wherein a respective cooling hole of the plurality of cooling holes is formed in a respective plateau of the plurality of plateaus; and a thermal barrier coating on the substrate, including on the grid of grooves and the plurality of plateaus. a substrate; a plurality of cooling holes formed in the substrate; a grid of grooves in a surface of the substrate, wherein the grid of grooves comprises a first plurality of grooves oriented in a first direction and a second plurality of grooves oriented in a second direction, wherein the grooves from the first plurality of grooves intersect the grooves from the second plurality of grooves, wherein the grid of grooves defines a plurality of plateaus in the substrate, and wherein a respective cooling hole of the plurality of cooling holes is formed in a respective plateau of the plurality of plateaus; and a thermal barrier coating on the substrate, including on the grid of grooves and the plurality of plateaus.
Method in a base station for allocating scheduling request resources to a user equipment served by the base station, wherein the base station and the user equipment are comprised within a wireless communication system, the method comprising the steps receiving a bearer setup message from the user equipment, sending, to the user equipment, a first instruction comprising a first scheduling request interval, to be used by the user equipment, receiving a scheduling request from the user equipment, estimating a data generation time at a user equipment, wherein the generation time is a time when the data was put in a transmit buffer at the user equipment, based on the received scheduling request, estimating a periodicity of data generation at the user equipment, determining a second scheduling request interval to be used by the user equipment, based on the estimated periodicity of data generation at the user equipment, determining a scheduling request resource to be allocated to the user equipment, based on the estimated generation time at the user equipment, and sending, to the user equipment, a second instruction comprising the determined second scheduling request interval and scheduling request resource, in order to adjust the scheduling request resources of the user equipment.
A steering system comprising: a position detector that detects a signal related to an absolute steering angle (θs); and an assist unit that acquires the signal related to the absolute steering angle (θs) while an ignition switch is off; wherein the assist unit includes: a counter that increments and decrements a count value based on a steering direction; and an abnormality detecting unit that compares a past value and a current value of the count value to detect an abnormality in the absolute steering angle (θs). a position detector that detects a signal related to an absolute steering angle (θs); and an assist unit that acquires the signal related to the absolute steering angle (θs) while an ignition switch is off; wherein the assist unit includes: a counter that increments and decrements a count value based on a steering direction; and an abnormality detecting unit that compares a past value and a current value of the count value to detect an abnormality in the absolute steering angle (θs). a counter that increments and decrements a count value based on a steering direction; and an abnormality detecting unit that compares a past value and a current value of the count value to detect an abnormality in the absolute steering angle (θs).
An alignment tool for use in inspecting a ring gear of a gearbox, the ring gear including an outer surface, an inner surface, a forward surface, an opposite aft surface and a plurality of gear teeth extending radially inwardly from the outer surface, wherein each gear tooth has a top surface extending between said forward and aft surfaces and said top surface defines a centerline axis of the gear tooth such that an oblique angle is defined between said centerline axis and said forward surface, said alignment tool comprising: an alignment plate including a support member extending between a leading edge and a trailing edge, said support member being removably mountable to said outer surface by means of a plurality of support magnets such that said leading edge is oriented substantially parallel with said forward surface; and a guide member extending outwardly from said support member, said guide member comprising a guide edge oriented obliquely with respect to said leading edge so as to be oriented parallel to said centerline axis, the guide edge being adapted to guide a transducer for inspecting the ring gear, wherein said guide member comprises a graduated scale defined along an outer surface thereof to enable a user to identify the location of the transducer. an alignment plate including a support member extending between a leading edge and a trailing edge, said support member being removably mountable to said outer surface by means of a plurality of support magnets such that said leading edge is oriented substantially parallel with said forward surface; and a guide member extending outwardly from said support member, said guide member comprising a guide edge oriented obliquely with respect to said leading edge so as to be oriented parallel to said centerline axis, the guide edge being adapted to guide a transducer for inspecting the ring gear, wherein said guide member comprises a graduated scale defined along an outer surface thereof to enable a user to identify the location of the transducer.
A method of sending control data by a wireless device in one or multiple uplink control channel resources of a wireless communication network, the method comprising: the wireless device (200, 1000) receiving, from a network node (100, 1100), information on a set of downlink component carriers configured for the wireless device; the wireless device (200, 1000) receiving, from the network node (100, 1100), an indication of the one or multiple uplink control channel resources; the wireless device (200, 1000) mapping first control data comprising control data for the set of configured downlink component carriers to a part of the one or multiple uplink control channel resources; and the wireless device (200, 1000) mapping second control data to a remaining part of the one or multiple uplink control channel resources, wherein the second control data is ordered according to a priority rule and the mapping of the second control data is performed on the basis of this ordering. the wireless device (200, 1000) receiving, from a network node (100, 1100), information on a set of downlink component carriers configured for the wireless device; the wireless device (200, 1000) receiving, from the network node (100, 1100), an indication of the one or multiple uplink control channel resources; the wireless device (200, 1000) mapping first control data comprising control data for the set of configured downlink component carriers to a part of the one or multiple uplink control channel resources; and the wireless device (200, 1000) mapping second control data to a remaining part of the one or multiple uplink control channel resources, wherein the second control data is ordered according to a priority rule and the mapping of the second control data is performed on the basis of this ordering.
An aircraft propulsion system comprising: a first internal combustion engine coupled to a first bladed rotor; a first motor generator having a first shaft, the first shaft configured to receive mechanical energy from the first internal combustion engine; and a control unit configured to direct the first motor generator to generate electricity, the electricity generated by the first motor generator due to a rotation of the first shaft caused by the first internal combustion engine, wherein the control unit is further configured to alternatively cause the first motor generator, in response to a predetermined event, to generate mechanical power that is transferred to the first bladed rotor, the mechanical power generated by the first motor generator is due to a rotation of the first shaft caused by an application of electricity to the first motor generator, wherein the electricity applied to the first motor generator is received from a second motor generator that is generated by a rotation of a second shaft of the second motor generator, the rotation of the second shaft of the second motor generator caused by a second internal combustion engine configured to power a second bladed rotor. a first internal combustion engine coupled to a first bladed rotor; a first motor generator having a first shaft, the first shaft configured to receive mechanical energy from the first internal combustion engine; and a control unit configured to direct the first motor generator to generate electricity, the electricity generated by the first motor generator due to a rotation of the first shaft caused by the first internal combustion engine, wherein the control unit is further configured to alternatively cause the first motor generator, in response to a predetermined event, to generate mechanical power that is transferred to the first bladed rotor, the mechanical power generated by the first motor generator is due to a rotation of the first shaft caused by an application of electricity to the first motor generator, wherein the electricity applied to the first motor generator is received from a second motor generator that is generated by a rotation of a second shaft of the second motor generator, the rotation of the second shaft of the second motor generator caused by a second internal combustion engine configured to power a second bladed rotor.
Gripper for a contact lens comprising a gripper head having a bearing surface, the bearing surface having at least one opening through which underpressure can be applied in order to suck the contact lens against the bearing surface and through which overpressure can be applied in order to release the contact lens from the bearing surface, the gripper further comprising a detection opening in the bearing surface through which a separate underpressure can be applied, the gripper further comprising an underpressure channel leading to the at least one opening in the bearing surface through which the underpressure can be applied, as well as an overpressure channel likewise leading to the at least one opening in the bearing surface, and the gripper further comprising a vacuum channel being arranged in the interior of the gripper, the distal end of the vacuum channel being arranged in the detection opening in a fluid-tight manner so as to allow application of the separate underpressure through the detection opening, wherein the overpressure channel and the underpressure channel are essentially separate from one another, and wherein the underpressure channel comprises a tube extending through the interior of the gripper, the distal end of the tube being arranged at a short distance (d) from the at least one opening in the bearing surface through which the underpressure or the overpressure can be applied.
An immunogenic composition comprising: a) a fusion protein of the TB 10.4 protein and an Ag85-complex protein, and b) an adjuvant comprising at least one polycationic peptide and at least one oligonucleotide which is oligo dIC, wherein the Ag85-complex protein is an Ag85B protein, the total amount of the TB 10.4 protein and the Ag85B protein ranges from 5.0 to 25.0 μg, and the adjuvant is a mixture of NH 2 -KLKLLLLLKLK-COOH and 5'-ICI CIC ICI CIC ICI CIC ICI CIC IC-3', for use as a vaccine against M. tuberculosis in a human. a) a fusion protein of the TB 10.4 protein and an Ag85-complex protein, and b) an adjuvant comprising at least one polycationic peptide and at least one oligonucleotide which is oligo dIC,
Transcription unit consisting of a polynucleotide comprising the following regulatory elements: - the hCMVie virus enhancer, said enhancer having the nucleotide sequence SEQ ID NO: 1, or a nucleic acid having at least 70% sequence identity with the sequence SEQ ID NO: 1 and possessing properties of transcription activation, and - promoter region of: - β-actin, said promoter region having the nucleotide sequence SEQ ID NO: 3, or a nucleic acid having at least 70% sequence identity with the sequence SEQ ID NO: 3 and possessing a promoter activity, and - a nucleic acid located downstream of said promoter region and upstream of the translation initiation site, said nucleic acid comprising the regulatory region R of the 5' Long Terminal Repeat of the HTLV-1 virus and the 5' UTR region of the eukaryotic Initiation Factor 4GI (eIF4GI) gene, said nucleic acid having the nucleotide sequence SEQ ID NO: 8, or a nucleic acid having at least 70% sequence identity with SEQ ID NO: 8 having properties of stabilization of the mRNA and the translation facilitator. - the hCMVie virus enhancer, said enhancer having the nucleotide sequence SEQ ID NO: 1, or a nucleic acid having at least 70% sequence identity with the sequence SEQ ID NO: 1 and possessing properties of transcription activation, and - promoter region of: - β-actin, said promoter region having the nucleotide sequence SEQ ID NO: 3, or a nucleic acid having at least 70% sequence identity with the sequence SEQ ID NO: 3 and possessing a promoter activity, and - β-actin, said promoter region having the nucleotide sequence SEQ ID NO: 3, or a nucleic acid having at least 70% sequence identity with the sequence SEQ ID NO: 3 and possessing a promoter activity, and - a nucleic acid located downstream of said promoter region and upstream of the translation initiation site, said nucleic acid comprising the regulatory region R of the 5' Long Terminal Repeat of the HTLV-1 virus and the 5' UTR region of the eukaryotic Initiation Factor 4GI (eIF4GI) gene, said nucleic acid having the nucleotide sequence SEQ ID NO: 8, or a nucleic acid having at least 70% sequence identity with SEQ ID NO: 8 having properties of stabilization of the mRNA and the translation facilitator.