mhurhangee/ep-ind-claims huggingface dataset:
Electric propulsion architecture for a multi-rotor vertical take-off and landing aircraft, comprising: - N electric generators (G1-G4), N being an integer greater than or equal to 2, - N pairs of rotors (R1_2 - R2_1; R3_4 - R4_3; R5_6 - R6_5; R7_8 - R8_7), characterised in that the architecture further comprises: - for each rotor, a first electric motor (106a-h) and a second electric motor (108a-h), the first electric motor (106a-h) being configured to operate in an active mode and the second electric motor (108a-h) being configured to be in a standby mode and being able to operate in an active mode in a breakdown situation, - for each rotor, a propeller (110a-h) coupled to the first and second electric motors (106a-h, 108a-h) so that, in operation, the first electric motor (106a-h) drives the propeller, wherein, for each pair of rotors (R1_2 - R2_1; R3_4 - R4_3; R5_6 - R6_5; R7_8 - R8_7), one of N electric generators powers the first electric motors (106a-h) of the rotors of a pair of rotors, and another of the N electric generators powers the second electric motors (108a-h) of the rotors of a pair of rotors, and wherein the rotors form counter-rotors (R1_2 - R6_5; R2_1 - R5_6; R3_4 - R8_7; R4_3 - R7_8), and for each counter-rotor, the first and second electric motors (106a-h, 108a-h) of the rotors of each counter-rotor are each powered by one of N electric generators (G1-G4) so that the N electric generators power the first and second electric motors (106a-h, 108a-h) of the rotors of each counter-rotor. - N electric generators (G1-G4), N being an integer greater than or equal to 2, - N pairs of rotors (R1_2 - R2_1; R3_4 - R4_3; R5_6 - R6_5; R7_8 - R8_7), characterised in that the architecture further comprises: - for each rotor, a first electric motor (106a-h) and a second electric motor (108a-h), the first electric motor (106a-h) being configured to operate in an active mode and the second electric motor (108a-h) being configured to be in a standby mode and being able to operate in an active mode in a breakdown situation, - for each rotor, a propeller (110a-h) coupled to the first and second electric motors (106a-h, 108a-h) so that, in operation, the first electric motor (106a-h) drives the propeller, wherein, for each pair of rotors (R1_2 - R2_1; R3_4 - R4_3; R5_6 - R6_5; R7_8 - R8_7), one of N electric generators powers the first electric motors (106a-h) of the rotors of a pair of rotors, and another of the N electric generators powers the second electric motors (108a-h) of the rotors of a pair of rotors, and wherein the rotors form counter-rotors (R1_2 - R6_5; R2_1 - R5_6; R3_4 - R8_7; R4_3 - R7_8), and for each counter-rotor, the first and second electric motors (106a-h, 108a-h) of the rotors of each counter-rotor are each powered by one of N electric generators (G1-G4) so that the N electric generators power the first and second electric motors (106a-h, 108a-h) of the rotors of each counter-rotor.
A method comprising: receiving, from a user and by a controller device in a physical environment, an action set comprising a triggering event (502, 604), a triggering condition (504, 606), a first resulting action (506, 608) for a first accessory of a plurality of accessories (104, 106, 108, 110, 112) and a second resulting action (506, 608) of a second accessory of the plurality of accessories (104, 106, 108, 110, 112), wherein the first resulting action and the second resulting action each change a state of the respective accessory; detecting, by the controller device, occurrence of the triggering event (502, 604); in response to detecting of the triggering event (502, 604), testing, by the controller device, whether the triggering condition (504, 606) is satisfied, wherein testing whether the triggering condition (504, 606) is satisfied comprises sending a read request to the first accessory to determine a state of the first accessory; and in response to the triggering condition (504, 606) being satisfied: sending a first control message to the first accessory to cause the first resulting action; and sending a second control message to the second accessory to cause the second resulting action. receiving, from a user and by a controller device in a physical environment, an action set comprising a triggering event (502, 604), a triggering condition (504, 606), a first resulting action (506, 608) for a first accessory of a plurality of accessories (104, 106, 108, 110, 112) and a second resulting action (506, 608) of a second accessory of the plurality of accessories (104, 106, 108, 110, 112), wherein the first resulting action and the second resulting action each change a state of the respective accessory; detecting, by the controller device, occurrence of the triggering event (502, 604); in response to detecting of the triggering event (502, 604), testing, by the controller device, whether the triggering condition (504, 606) is satisfied, wherein testing whether the triggering condition (504, 606) is satisfied comprises sending a read request to the first accessory to determine a state of the first accessory; and in response to the triggering condition (504, 606) being satisfied: sending a first control message to the first accessory to cause the first resulting action; and sending a second control message to the second accessory to cause the second resulting action. sending a first control message to the first accessory to cause the first resulting action; and sending a second control message to the second accessory to cause the second resulting action.
An inter-frame prediction encoding method for encoding in skip mode, comprising: obtaining a template matching motion vector and a predictive motion vector of a current block; characterized in that the method further comprises: comparing the template matching motion vector and the predictive motion vector, if the template matching motion vector and the predictive motion vector of the current block are identical to each other, encoding only macroblock type information into a bitstream; if the template matching motion vector and the predictive motion vector of the current block are different from each other, encoding macroblock type information and a flag indicating whether to use template matching into a bitstream, to instruct a decoder to decode the bitstream in a template matching mode or a motion compensation mode. obtaining a template matching motion vector and a predictive motion vector of a current block; comparing the template matching motion vector and the predictive motion vector, if the template matching motion vector and the predictive motion vector of the current block are identical to each other, encoding only macroblock type information into a bitstream; if the template matching motion vector and the predictive motion vector of the current block are different from each other, encoding macroblock type information and a flag indicating whether to use template matching into a bitstream, to instruct a decoder to decode the bitstream in a template matching mode or a motion compensation mode.
A device for packaging and applying a cosmetic product, of longitudinal axis X, this device having a container for containing said product and a stem connected by a first end to a gripping part and by a second end to an application element comprising an application head and an end piece mounted in a housing of the stem, the end piece has a frustoconical portion fitted in a complementary frustoconical space provided in the housing of the stem, this device being characterized in that the frustoconical portion has an elongate flat along the longitudinal axis X of the device.
A method for commissioning goods in a warehouse, wherein at least one order list is processed, and wherein at least one commissioner is equipped with a portable mobile unit with an optical display device, and at least one commissioner manually stacks goods from the warehouse onto a pallet of at least one driverless transport vehicle in the form of a stack, characterized in that at least one data processing system transmits coordination data for the respective good on the at least one order list to be commissioned next to both the at least one transport vehicle and to the at least one mobile unit, so as to commission a good, wherein at least one algorithm is provided for calculating a packet image on the transport vehicle, which is displayed on the display device for the respective good to be commissioned, wherein a receiving device is provided on the at least one transport vehicle, which receives the arrangement of goods on the transport vehicle, and after a good has been stacked, a comparison between the calculated packing image and the received arrangement of goods is performed, and a new optimized packing image is calculated for the next good to be commissioned given a deviation in the arrangement of goods by comparison to the calculated packing image.
A method for recovering a service, comprising: planning N band-level Forward Adjacency Label Switched Paths, FA LSPs, according to working resources of a TE link in a network, and planning N band-level shared MESH recovery paths corresponding to the N band-level FA LSPs; wherein the N is an integer greater than or equal to 1, and the N is the number of all band-level shared MESH recovery paths corresponding to the TE link; establishing the N band-level FA LSPs on the working resources of the TE link, and establishing the N band-level shared MESH recovery paths corresponding to the N band-level FA LSPs on recovery resources of the other TE links aside from the TE link in the network; flooding information of a shared MESH recovery state which indicating a state of working resources included in each of the N band-level FA LSPs into the network, wherein the information of the shared MESH recovery state is used to broadcast that a failure recovery mode of the working resources of the N band-level FA LSPs is a band-level shared MESH recovery mode; and detecting whether the TE link fails, and when detecting that the TE link fails, recovering a service on the working resources of the TE link by switching the N band-level FA LSPs on the TE link to the N band-level shared MESH recovery paths. planning N band-level Forward Adjacency Label Switched Paths, FA LSPs, according to working resources of a TE link in a network, and planning N band-level shared MESH recovery paths corresponding to the N band-level FA LSPs; wherein the N is an integer greater than or equal to 1, and the N is the number of all band-level shared MESH recovery paths corresponding to the TE link; establishing the N band-level FA LSPs on the working resources of the TE link, and establishing the N band-level shared MESH recovery paths corresponding to the N band-level FA LSPs on recovery resources of the other TE links aside from the TE link in the network; flooding information of a shared MESH recovery state which indicating a state of working resources included in each of the N band-level FA LSPs into the network, wherein the information of the shared MESH recovery state is used to broadcast that a failure recovery mode of the working resources of the N band-level FA LSPs is a band-level shared MESH recovery mode; and detecting whether the TE link fails, and when detecting that the TE link fails, recovering a service on the working resources of the TE link by switching the N band-level FA LSPs on the TE link to the N band-level shared MESH recovery paths.
Blade for a turbomachine, said blade comprising a shroud which is positioned on a blade tip side of the blade and is stiffened in the region of its surface by means of a stiffening structure which comprises at least one rib that extends in the circumferential direction and has a varying height (h) in the circumferential direction, characterized in that the rib has a highest portion which is located in an extension of the airfoil.
A linking system for linking a particular object model from a set of object models with an object in an image, the linking system comprising - a first selection unit configured to select the object in the image in response to a user input from an input device indicating a region of the object in the image; - a determining unit configured to determine a subset of related candidate object models from the set of object models on the basis of the selected object,wherein the subset comprises a particular object model to be linked to the selected object; - a second selection unit configured to select the particular object model from the subset of related candidate object models based on a user input from the input device, and - a display unit configured to display a representation of the subset of related candidate object models, wherein the subset of related candidate object models from the set of object models is determined by computing a similarity measure between each of the object models in the set of object models and the selected object in the image, wherein the similarity measure is computed by the ratio of the non-overlap area or volume of the selected object and the object model over the overlap area or volume of the selected object and the object model. - a first selection unit configured to select the object in the image in response to a user input from an input device indicating a region of the object in the image; - a determining unit configured to determine a subset of related candidate object models from the set of object models on the basis of the selected object,wherein the subset comprises a particular object model to be linked to the selected object; - a second selection unit configured to select the particular object model from the subset of related candidate object models based on a user input from the input device, and - a display unit configured to display a representation of the subset of related candidate object models,
A fire suppression system comprising: at least one spray head; a drive source coupled to the at least one spray head by a supply line (15,15a,15b) that delivers an extinguishing medium to the at least one spray head; at least three fire location sensors fixedly arranged at known locations configured to detect waves emitted during a fire condition; and a control unit operably coupled to the drive source and the plurality of fire location sensors such that the output of the fire location sensors is transmitted to the control unit for analysis, wherein the control unit includes a timer for each of the at least three fire location sensors, the timer being configured to determine a time at which each fire location sensor detects a wave; and wherein the control unit determines a position of the fire condition based on the known location of the fire location sensors, data collected by the at least three fire location sensors, and the time at which each fire location sensor detects a wave; wherein each of the at least three fire location sensors provides a signal to the control unit based on the detected wave. at least one spray head; a drive source coupled to the at least one spray head by a supply line (15,15a,15b) that delivers an extinguishing medium to the at least one spray head; at least three fire location sensors fixedly arranged at known locations configured to detect waves emitted during a fire condition; and a control unit operably coupled to the drive source and the plurality of fire location sensors such that the output of the fire location sensors is transmitted to the control unit for analysis, wherein the control unit includes a timer for each of the at least three fire location sensors, the timer being configured to determine a time at which each fire location sensor detects a wave; and wherein the control unit determines a position of the fire condition based on the known location of the fire location sensors, data collected by the at least three fire location sensors, and the time at which each fire location sensor detects a wave; wherein each of the at least three fire location sensors provides a signal to the control unit based on the detected wave.
A 3D imaging system (100, 300) comprising: a light source arranged to illuminate a scene with at least one optical pulse comprising light of at least two discrete wavelengths; an optical detector (102, 303, 304) comprising an array of detection elements; and an optical modulator (104, 301) comprising a variable wavelength 2. filter interposed in the optical path between the scene and the optical detector, characterised in that the modulator (104,301) is arranged to differentially amplitude modulate the two wavelengths in the reflected portion of the optical pulse as a function of time so that in a first mode of operation the modulator differentially modulates the amplitude of the two wavelengths such that the first wavelength is increasingly attenuated over time and the second wavelength is not attenuated or is decreasingly attenuated over that time and in a second mode of operation modulates the amplitude of the two wavelengths whereby the second wavelength is increasingly attenuated over time and the first wavelength is not attenuated or is decreasingly attenuated. a light source arranged to illuminate a scene with at least one optical pulse comprising light of at least two discrete wavelengths; an optical detector (102, 303, 304) comprising an array of detection elements; and an optical modulator (104, 301) comprising a variable wavelength 2. filter interposed in the optical path between the scene and the optical detector, characterised in that the modulator (104,301) is arranged to differentially amplitude modulate the two wavelengths in the reflected portion of the optical pulse as a function of time so that in a first mode of operation the modulator differentially modulates the amplitude of the two wavelengths such that the first wavelength is increasingly attenuated over time and the second wavelength is not attenuated or is decreasingly attenuated over that time and in a second mode of operation modulates the amplitude of the two wavelengths whereby the second wavelength is increasingly attenuated over time and the first wavelength is not attenuated or is decreasingly attenuated.
An electro-modulated structure, comprising: an electro-absorption modulator; and first and second drivers to independently apply respective first and second electric fields to first and second sections of the modulator, whereby to modulate an optical signal to generate a multi-level pulse amplitude modulated output signal, characterised in that the first and second drivers are configured to bias the first and second sections of the modulator using respective applied voltages corresponding to minimum and maximum levels of the extinction curves of the first and second sections of the modulator. an electro-absorption modulator; and first and second drivers to independently apply respective first and second electric fields to first and second sections of the modulator, whereby to modulate an optical signal to generate a multi-level pulse amplitude modulated output signal, characterised in that the first and second drivers are configured to bias the first and second sections of the modulator using respective applied voltages corresponding to minimum and maximum levels of the extinction curves of the first and second sections of the modulator.
Microchip testing device, comprising: - a measurement stage, - a chip holder having a cover and a box area mounted on the measurement stage, the cover and the box area being connected in a hinged connection, - chip supporters in the box area or a single chip supporter hinged to the cover and to the box area, - a microchip that has an optical measurement chamber and is housed in the chip holder, - a light source that radiates light on the optical measurement chamber of the microchip, and - a detector that receives light that has passed through the optical measurement chamber, wherein the optical measurement chamber is arranged such that an optical axis extends in a 1 st direction, wherein the chip holder has three reference planes (53, 55, 69) at the box area of the chip holder, namely a 1 st direction reference plane,, a 2 nd direction reference plane and a 3 rd direction reference plane, to position the microchip in a 2 nd and in a 3 rd direction, which are perpendicular to each other and furthermore perpendicular to the 1 st direction, the 1 st direction being perpendicular to the 1 st direction reference plane, the 2 nd direction being perpendicular to the 2 nd direction reference plane, and the 3 rd direction being perpendicular to the 3 rd direction reference plane, characterized in that the chip holder has pushers (54, 56, 70) that push the microchip against the reference planes (53, 55, 69), wherein a 2 nd direction pusher is provided to push the microchip against said 2 nd direction reference plane and a 3 rd direction pusher is provided to push the microchip against said 3 rd direction reference plane, wherein at least one of said 2 nd direction pusher and said 3 rd direction pusher is provided at the cover so that the microchip is positioned within the chip holder by closing the cover of the chip holder. - a measurement stage, - a chip holder having a cover and a box area mounted on the measurement stage, the cover and the box area being connected in a hinged connection, - chip supporters in the box area or a single chip supporter hinged to the cover and to the box area, - a microchip that has an optical measurement chamber and is housed in the chip holder, - a light source that radiates light on the optical measurement chamber of the microchip, and - a detector that receives light that has passed through the optical measurement chamber,
A float valve for use in a tubular having a throughbore for flow, the float valve comprising: an expanded sleeve having first and second ends and composed of a first drillable material, the expanded sleeve being expanded from a smaller diameter to a larger diameter inside the tubular; a first cap disposed on the first end of the sleeve and having a first passage therethrough, the first cap composed of a second drillable material; a second cap disposed on the second end of the sleeve and having a second passage therethrough, the second cap composed of a third drillable material; a flow tube composed of a fourth drillable material and having a bore therethrough, the flow tube disposed between the first and second caps (130, 140) and connected to the first and second passages (132, 142); and a valve (170, 180, 190) disposed relative to the bore of the flow tube and configured to control the flow in the tubing through the flow tube, the valve (170, 180, 190) composed of a fifth drillable material. an expanded sleeve having first and second ends and composed of a first drillable material, the expanded sleeve being expanded from a smaller diameter to a larger diameter inside the tubular; a first cap disposed on the first end of the sleeve and having a first passage therethrough, the first cap composed of a second drillable material; a second cap disposed on the second end of the sleeve and having a second passage therethrough, the second cap composed of a third drillable material; a flow tube composed of a fourth drillable material and having a bore therethrough, the flow tube disposed between the first and second caps (130, 140) and connected to the first and second passages (132, 142); and a valve (170, 180, 190) disposed relative to the bore of the flow tube and configured to control the flow in the tubing through the flow tube, the valve (170, 180, 190) composed of a fifth drillable material.