mhurhangee/patent-ind-claim-en huggingface dataset:
A blade comprising a heating deicing system, wherein the heating deicing system comprises: an isolating device arranged in a blade cavity and dividing a part of the blade cavity close to a leading edge of the blade into a plurality of sub-cavities (A, B, C, D, E, F) sequentially distributed along a length direction of the blade; a heating device arranged in each of the sub-cavities (A, B, C, D, E, F); and a controller configured to separately control opening and closing of the heating device in each of the sub-cavities (A, B, C, D, E, F) to heat the plurality of sub-cavities (A, B, C, D, E, F) in response to a blade deicing instruction. an isolating device arranged in a blade cavity and dividing a part of the blade cavity close to a leading edge of the blade into a plurality of sub-cavities (A, B, C, D, E, F) sequentially distributed along a length direction of the blade; a heating device arranged in each of the sub-cavities (A, B, C, D, E, F); and a controller configured to separately control opening and closing of the heating device in each of the sub-cavities (A, B, C, D, E, F) to heat the plurality of sub-cavities (A, B, C, D, E, F) in response to a blade deicing instruction.
A control system for an unmanned vehicle , the control system comprising: a control processing unit arranged to receive input signals from one or more sensors and to supply output signals to one or more actuators , the control processing unit comprising a plurality of processing modules which are arranged into a plurality of stages , wherein the stages are successively linked with outputs from a plurality of the processing modules in a preceding first stage being coupled to inputs of one or more of the processing modules in a subsequent second stage; and wherein, in the first stage , the plurality of the processing modules produce substantially equivalent payload data when operating correctly and each of the processing modules includes a message cryptography unit which generates cryptographically signed messages containing the payload data, and characterised in that , in the second stage , each of the one or more processing modules comprises a voting cryptography unit which receives the cryptographically signed messages from the plurality of processing modules of the first stage , examines the cryptographically signed messages, and applies voting logic to derive a validated payload data from the cryptographically signed messages for use by the processing module of the second stage . a control processing unit arranged to receive input signals from one or more sensors and to supply output signals to one or more actuators , the control processing unit comprising a plurality of processing modules which are arranged into a plurality of stages , wherein the stages are successively linked with outputs from a plurality of the processing modules in a preceding first stage being coupled to inputs of one or more of the processing modules in a subsequent second stage; and wherein, in the first stage , the plurality of the processing modules produce substantially equivalent payload data when operating correctly and each of the processing modules includes a message cryptography unit which generates cryptographically signed messages containing the payload data, and characterised in that , in the second stage , each of the one or more processing modules comprises a voting cryptography unit which receives the cryptographically signed messages from the plurality of processing modules of the first stage , examines the cryptographically signed messages, and applies voting logic to derive a validated payload data from the cryptographically signed messages for use by the processing module of the second stage .
A computer-implemented method of planning motion of a vehicle, the method comprising: receiving (S20) real-time signals as to positions of N traffic participants; and at each time step of multiple time steps, planning motion (S50) for the vehicle by computing (S30) states of each of the N traffic participants according to the signals received (S20), using an interaction-aware model of the N traffic participants, wherein said states include current states, which are estimated for each of the N traffic participants, and future states of each of the participants, which are predicted (S30) over a prediction horizon T, and wherein the model is designed to cause the method to: recursively compute (S32 - S38), at said each time step, the states of each of the N traffic participants according to a hierarchical list, wherein the N traffic participants are ordered from a most determinative one to a least determinative one of the N traffic participants, so as for the states of the η -th participant in the list to be computed based on the states of each of the η - 1 participants in the list, ∀ η ∈ [2, ..., N ]; and update and sort (S40) the hierarchical list based on rules of the road, wherein the rules are evaluated based on the states of each of the N traffic participants as computed at said each time step. receiving (S20) real-time signals as to positions of N traffic participants; and at each time step of multiple time steps, planning motion (S50) for the vehicle by computing (S30) states of each of the N traffic participants according to the signals received (S20), using an interaction-aware model of the N traffic participants, wherein said states include current states, which are estimated for each of the N traffic participants, and future states of each of the participants, which are predicted (S30) over a prediction horizon T, and wherein the model is designed to cause the method to: recursively compute (S32 - S38), at said each time step, the states of each of the N traffic participants according to a hierarchical list, wherein the N traffic participants are ordered from a most determinative one to a least determinative one of the N traffic participants, so as for the states of the η -th participant in the list to be computed based on the states of each of the η - 1 participants in the list, ∀ η ∈ [2, ..., N ]; and update and sort (S40) the hierarchical list based on rules of the road, wherein the rules are evaluated based on the states of each of the N traffic participants as computed at said each time step. recursively compute (S32 - S38), at said each time step, the states of each of the N traffic participants according to a hierarchical list, wherein the N traffic participants are ordered from a most determinative one to a least determinative one of the N traffic participants, so as for the states of the η -th participant in the list to be computed based on the states of each of the η - 1 participants in the list, ∀ η ∈ [2, ..., N ]; and update and sort (S40) the hierarchical list based on rules of the road, wherein the rules are evaluated based on the states of each of the N traffic participants as computed at said each time step.
A method for wireless communications performed by a user equipment, UE , comprising: identifying that the UE is operating in a dual-connectivity configuration comprising a first base station and a second base station ; receiving at least one request for minimization of drive test, MDT measurements, wherein the MDT measurements comprise one or more quality of service measurements or quality of experience measurements; performing , based at least in part on the at least one request, a first portion of measurements associated with the first base station while the UE is operating in the dual-connectivity configuration; performing , based at least in part on the at least one request, a second portion of measurements associated with the second base station while the UE is operating in the dual-connectivity configuration; and transmitting one or more reports including information indicative of the first portion of measurements, information indicative of the second portion of measurements, or both. identifying that the UE is operating in a dual-connectivity configuration comprising a first base station and a second base station ; receiving at least one request for minimization of drive test, MDT measurements, wherein the MDT measurements comprise one or more quality of service measurements or quality of experience measurements; performing , based at least in part on the at least one request, a first portion of measurements associated with the first base station while the UE is operating in the dual-connectivity configuration; performing , based at least in part on the at least one request, a second portion of measurements associated with the second base station while the UE is operating in the dual-connectivity configuration; and transmitting one or more reports including information indicative of the first portion of measurements, information indicative of the second portion of measurements, or both.
A micro robot comprising: a drilling body which has a drilling tip formed at an end thereof; and a spiral coupling body which has a magnet disposed therein, and is spirally coupled to an outer circumference of the drilling body , and wherein a medicine accommodating space , which has a hollow shape and accommodates a medicine, is formed in the drilling body . a drilling body which has a drilling tip formed at an end thereof; and a spiral coupling body which has a magnet disposed therein, and is spirally coupled to an outer circumference of the drilling body , and wherein a medicine accommodating space , which has a hollow shape and accommodates a medicine, is formed in the drilling body .
A method for obtaining a mixture of the rapeseed proteins napin and cruciferin from a plant, the method comprising the steps of: (a) disintegrating the plant for obtaining a crude extract by means of aqueous extraction using an extracting agent; (b) obtaining the desired proteins from the supernatant from step (a) and adjusting the supernatant to a pH in the range of 5.0 to 6.0; (c) separating the mixture from step (b) via a cation exchanger using a high salt elution buffer, the pH of the buffer being in the range of 5.0 to 6.0; and (d) obtaining the eluate. (a) disintegrating the plant for obtaining a crude extract by means of aqueous extraction using an extracting agent; (b) obtaining the desired proteins from the supernatant from step (a) and adjusting the supernatant to a pH in the range of 5.0 to 6.0; (c) separating the mixture from step (b) via a cation exchanger using a high salt elution buffer, the pH of the buffer being in the range of 5.0 to 6.0; and (d) obtaining the eluate.
A method comprising: receiving , by a vehicle-to-anything, V2X, radio of an ego vehicle (123; 623), a basic cooperative perception message, CPM, transmitted by a remote vehicle (124; 624), wherein the basic CPM includes basic CPM data describing objects that a remote onboard sensor set of the remote vehicle (124; 624) has perceived; characterised by : determining , based on the basic CPM data and a set of objects (104, 106; 601) that a local onboard sensor set of the ego vehicle (123; 623) has perceived, that the remote onboard sensor set of the remote vehicle (124; 624) has misperceived a select object (104; 601) and that the remote vehicle (124; 624) is on a collision course with the select object (104; 601); and transmitting to the remote vehicle (124; 624), by the V2X radio of the ego vehicle (123; 623) using a different V2X communication protocol than was used for receiving the basic CPM, a supplemental CPM including supplemental CPM data describing the select object (104; 601) that the remote onboard sensor set of the remote vehicle (124; 624) has misperceived so that the remote vehicle (124; 624) is alerted to a presence of the select object (104; 601). receiving , by a vehicle-to-anything, V2X, radio of an ego vehicle (123; 623), a basic cooperative perception message, CPM, transmitted by a remote vehicle (124; 624), wherein the basic CPM includes basic CPM data describing objects that a remote onboard sensor set of the remote vehicle (124; 624) has perceived; characterised by : determining , based on the basic CPM data and a set of objects (104, 106; 601) that a local onboard sensor set of the ego vehicle (123; 623) has perceived, that the remote onboard sensor set of the remote vehicle (124; 624) has misperceived a select object (104; 601) and that the remote vehicle (124; 624) is on a collision course with the select object (104; 601); and transmitting to the remote vehicle (124; 624), by the V2X radio of the ego vehicle (123; 623) using a different V2X communication protocol than was used for receiving the basic CPM, a supplemental CPM including supplemental CPM data describing the select object (104; 601) that the remote onboard sensor set of the remote vehicle (124; 624) has misperceived so that the remote vehicle (124; 624) is alerted to a presence of the select object (104; 601). determining , based on the basic CPM data and a set of objects (104, 106; 601) that a local onboard sensor set of the ego vehicle (123; 623) has perceived, that the remote onboard sensor set of the remote vehicle (124; 624) has misperceived a select object (104; 601) and that the remote vehicle (124; 624) is on a collision course with the select object (104; 601); and transmitting to the remote vehicle (124; 624), by the V2X radio of the ego vehicle (123; 623) using a different V2X communication protocol than was used for receiving the basic CPM, a supplemental CPM including supplemental CPM data describing the select object (104; 601) that the remote onboard sensor set of the remote vehicle (124; 624) has misperceived so that the remote vehicle (124; 624) is alerted to a presence of the select object (104; 601).
A display module comprising: a cabinet ; and a plurality of Light Emitting Diode, LED, panels arranged on the cabinet in an array, each LED panel of the plurality of LED panels having a plurality of LEDs , wherein the cabinet comprises a first plurality of fastening parts to fasten the plurality of LED panels to the cabinet , characterized in that : the cabinet comprises a plurality of level regulators configured to regulate level differences amongst the plurality of LED panels , in that the first plurality of fastening parts comprises first fastening parts configured to fasten respective corners of the plurality of LED panels to the cabinet, and in that the first level regulators are provided at respective corners of the plurality of LED panels and adjacent to the respective first fastening parts . a cabinet ; and a plurality of Light Emitting Diode, LED, panels arranged on the cabinet in an array, each LED panel of the plurality of LED panels having a plurality of LEDs , wherein the cabinet comprises a first plurality of fastening parts to fasten the plurality of LED panels to the cabinet , characterized in that : the cabinet comprises a plurality of level regulators configured to regulate level differences amongst the plurality of LED panels , in that the first plurality of fastening parts comprises first fastening parts configured to fasten respective corners of the plurality of LED panels to the cabinet, and in that the first level regulators are provided at respective corners of the plurality of LED panels and adjacent to the respective first fastening parts . the cabinet comprises a plurality of level regulators configured to regulate level differences amongst the plurality of LED panels , in that the first plurality of fastening parts comprises first fastening parts configured to fasten respective corners of the plurality of LED panels to the cabinet, and in that the first level regulators are provided at respective corners of the plurality of LED panels and adjacent to the respective first fastening parts .
A method for preparing a dental ceramic temporary calcined body including an inside colored by a coloring material, wherein the method includes infiltrating a first coloring liquid containing a first coloring material into the dental ceramic temporary calcined body, and infiltrating a penetrant containing a permeating liquid into the dental ceramic temporary calcined body to infiltrate the coloring material into the inside of the dental ceramic temporary calcined body, wherein the penetrant does not apply a coloration to the dental ceramic temporary calcined body, the dental ceramic temporary calcined body is colored by dropping the coloring liquid and the penetrant, the dripping amounts of the coloring liquid and/or the penetrant are within a range of 0.01 to 0.00001 ml, and the method further includes infiltrating the penetrant before using the coloring liquid. infiltrating a first coloring liquid containing a first coloring material into the dental ceramic temporary calcined body, and infiltrating a penetrant containing a permeating liquid into the dental ceramic temporary calcined body to infiltrate the coloring material into the inside of the dental ceramic temporary calcined body, wherein the penetrant does not apply a coloration to the dental ceramic temporary calcined body, the dental ceramic temporary calcined body is colored by dropping the coloring liquid and the penetrant, the dripping amounts of the coloring liquid and/or the penetrant are within a range of 0.01 to 0.00001 ml, and the method further includes infiltrating the penetrant before using the coloring liquid.
A material loading system , comprising: a receiving vehicle identification system configured to automatically identify a receiving vehicle that receives material from a material loading vehicle ; a fill data generation system configured to automatically generate a load count corresponding to the identified receiving vehicle , the load count being indicative of a number of times that the identified receiving vehicle has been filled with material during a load count window; and an output generator configured to generate an output control signal to output the load count corresponding to the identified receiving vehicle ; characterized by comprising a fill level detection system configured to automatically detect a fill level of the material in the identified receiving vehicle ; and a weight generation system configured to automatically generate an estimated weight value indicative of an estimated weight of the material in the identified receiving vehicle based on the identified receiving vehicle and the detected fill level. a receiving vehicle identification system configured to automatically identify a receiving vehicle that receives material from a material loading vehicle ; a fill data generation system configured to automatically generate a load count corresponding to the identified receiving vehicle , the load count being indicative of a number of times that the identified receiving vehicle has been filled with material during a load count window; and an output generator configured to generate an output control signal to output the load count corresponding to the identified receiving vehicle ; characterized by comprising a fill level detection system configured to automatically detect a fill level of the material in the identified receiving vehicle ; and a weight generation system configured to automatically generate an estimated weight value indicative of an estimated weight of the material in the identified receiving vehicle based on the identified receiving vehicle and the detected fill level.
A congestion control method, characterised in that the method comprises: detecting (S201), by a radio access network, RAN, device, occurrence of congestion according to resource usage of an involved operator, wherein the involved operator is a mobile virtual network operator, MVNO, or an operator that shares an operator network; and sending (S202), by the RAN device when detecting that congestion occurs on one or more involved operators, a congestion notification message to a core network device related to the involved operator on which congestion occurs, wherein the congestion notification message comprises an identifier of the involved operator on which congestion occurs and is used for the core network device to perform congestion control on the involved operator corresponding to the identifier of the involved operator. detecting (S201), by a radio access network, RAN, device, occurrence of congestion according to resource usage of an involved operator, wherein the involved operator is a mobile virtual network operator, MVNO, or an operator that shares an operator network; and sending (S202), by the RAN device when detecting that congestion occurs on one or more involved operators, a congestion notification message to a core network device related to the involved operator on which congestion occurs, wherein the congestion notification message comprises an identifier of the involved operator on which congestion occurs and is used for the core network device to perform congestion control on the involved operator corresponding to the identifier of the involved operator.
A system for chopping and spreading residue in an agricultural combine comprising: a chopper disposed in a crop residue flow path to receive crop residue from a threshing and separating mechanism, the chopper having a rotational axis that extends horizontally and transversely to a harvesting direction of travel; a residue accelerator disposed downstream of the chopper to receive chopped residue from the chopper and to accelerate the chopped residue; a residue spreader disposed downstream of the residue accelerator to spread the chopped residue accelerated by the residue accelerator ; wherein the residue accelerator further comprises an elongate drum having a rotating axis that is disposed horizontally and transversely to the harvesting direction of travel of the agricultural combine, a plurality of rings extending about the elongate drum and fixed to the elongate drum , and a plurality of vanes extending between and fixed to each adjacent pair of rings , characterized in that a vane extension is removably fixed to each of the plurality of vanes , that each of the plurality of rings has a plurality of extensions extending outwardly from a central region of each said ring , the extensions defining, on their front face with respect to the rotation direction of the elongate drum , an elongate slot extending radially outwardly from the outer surface of the elongate drum , and that the plurality of vanes extending between and fixed to each adjacent pair of rings is welded to one of the elongate slots . a chopper disposed in a crop residue flow path to receive crop residue from a threshing and separating mechanism, the chopper having a rotational axis that extends horizontally and transversely to a harvesting direction of travel; a residue accelerator disposed downstream of the chopper to receive chopped residue from the chopper and to accelerate the chopped residue; a residue spreader disposed downstream of the residue accelerator to spread the chopped residue accelerated by the residue accelerator ; wherein the residue accelerator further comprises an elongate drum having a rotating axis that is disposed horizontally and transversely to the harvesting direction of travel of the agricultural combine, a plurality of rings extending about the elongate drum and fixed to the elongate drum , and a plurality of vanes extending between and fixed to each adjacent pair of rings , characterized in that a vane extension is removably fixed to each of the plurality of vanes , that each of the plurality of rings has a plurality of extensions extending outwardly from a central region of each said ring , the extensions defining, on their front face with respect to the rotation direction of the elongate drum , an elongate slot extending radially outwardly from the outer surface of the elongate drum , and that the plurality of vanes extending between and fixed to each adjacent pair of rings is welded to one of the elongate slots .