mhurhangee/patent-ind-claim-en huggingface dataset:
An image matching method comprising: Obtaining (S101) a panoramic image of at least one subspace in a 3D space and a 2D image of the 3D space, wherein, the 3D space is composed of the at least one subspace, and when the 3D space is composed of a plurality of subspaces, the respective subspaces are not mutually overlapped, and wherein the 2D image of the 3D space describes the planar layout of each subspace in the 3D space; acquiring (S102), based on the 2D image of the 3D space, a 2D image of the at least one subspace in the 3D space; performing (S103) 3D reconstruction on the panoramic image of the at least one subspace to procure a 3D reconstruction model, and procuring a projection image corresponding to the panoramic image of the at least one subspace by projecting the 3D reconstruction model onto a plane where the 2D image of the 3D space is located or another plane parallel to the plane where the 2D image of the 3D space is located; and attaining (S104), based on the projection image of the at least one subspace and the 2D image of the at least one subspace, a matching relationship between the panoramic image of the at least one subspace and the 2D image of the at least one subspace, and establishing an association relationship between the panoramic image of the at least one subspace and the 2D image of the at least one subspace between which the matching relationship is generated. Obtaining (S101) a panoramic image of at least one subspace in a 3D space and a 2D image of the 3D space, wherein, the 3D space is composed of the at least one subspace, and when the 3D space is composed of a plurality of subspaces, the respective subspaces are not mutually overlapped, and wherein the 2D image of the 3D space describes the planar layout of each subspace in the 3D space; acquiring (S102), based on the 2D image of the 3D space, a 2D image of the at least one subspace in the 3D space; performing (S103) 3D reconstruction on the panoramic image of the at least one subspace to procure a 3D reconstruction model, and procuring a projection image corresponding to the panoramic image of the at least one subspace by projecting the 3D reconstruction model onto a plane where the 2D image of the 3D space is located or another plane parallel to the plane where the 2D image of the 3D space is located; and attaining (S104), based on the projection image of the at least one subspace and the 2D image of the at least one subspace, a matching relationship between the panoramic image of the at least one subspace and the 2D image of the at least one subspace, and establishing an association relationship between the panoramic image of the at least one subspace and the 2D image of the at least one subspace between which the matching relationship is generated.
A travel control apparatus (A) to control travel of a work vehicle capable of conducting work travel by automatic driving, characterized by comprising: a display capable of displaying a position of the work vehicle in a work field (W) where the work travel is conducted; a guide-index display portion to cause the display to display a guide index (E) corresponding to an automatic-travel permitted area (R) which is an area defined in the work field (W); and a position determination portion to determine whether or not the work vehicle is located in the automatic-travel permitted area (R), wherein transition to an automatic-travel mode is allowed when the position determination portion determines that the work vehicle is located in the automatic-travel permitted area (R). a display capable of displaying a position of the work vehicle in a work field (W) where the work travel is conducted; a guide-index display portion to cause the display to display a guide index (E) corresponding to an automatic-travel permitted area (R) which is an area defined in the work field (W); and a position determination portion to determine whether or not the work vehicle is located in the automatic-travel permitted area (R), wherein transition to an automatic-travel mode is allowed when the position determination portion determines that the work vehicle is located in the automatic-travel permitted area (R).
Method for producing an implant having at least one functional surface, characterized in that a solid base body and the functional surface are produced in one work step, the functional surface being a porous, bone-affine surface, and a ceramic powder being used as the base material.
Device for emitting a light beam intended to form an image, said device comprising one or more sources , each emitting a beam of the laser type, said device being configured to form said light beam from the one laser beam or from the bringing together of said laser beams by combination, said device comprising attenuation means situated downstream of said source or sources , making it possible to vary the optical power of the light beam by reflecting said beam or beams as a function of a supply current of said attenuation means and in that said device comprises means for controlling the current supply of said sources , said control means being configured to provide additional adjustment of the optical power of said light beam and in which said attenuation means comprise one or more electrochromic mirrors.
Cooling system for a vehicle , with a high-temperature coolant circuit (HT coolant circuit, 4) for liquid cooling of at least one HT component to be cooled of the vehicle , which HT component is an internal combustion engine of the vehicle , and with a low-temperature coolant circuit (LT coolant circuit, 23) which has a lower temperature than the HT coolant circuit for liquid cooling of at least one LT component to be cooled of the vehicle , a medium-temperature coolant circuit (MT coolant circuit, 35) being provided which has a lower temperature than the HT coolant circuit and a higher temperature than the LT coolant circuit and by means of which at least one MT component to be cooled of the vehicle can be liquid-cooled, the said three coolant circuits being separated from one another in flow terms, an energy recovery device (ER device, 11) being provided, by means of which energy can be recovered from a waste heat of the internal combustion engine of the vehicle , the ER device having at least one heat-supplying heat exchanger , by means of which the waste heat of the internal combustion engine can be fed to the ER device , and the ER device having at least one heat-dissipating heat exchanger , by means of which heat can be dissipated from the ER device , characterized in that the heat-dissipating heat exchanger of the ER device configures an MT component to be cooled and an LT component to be cooled, and in that the three coolant circuits which are separated from one another in flow terms and the energy recovery device are connected to one another in a heat-transmitting manner by means of the heat-dissipating heat exchanger , in that the heat-dissipating heat exchanger has a first flow duct which is flowed through by the HT coolant of the HT coolant circuit , in that the heat-dissipating heat exchanger has a second flow duct which is flowed through by the LT coolant of the LT coolant circuit , in that the heat-dissipating heat exchanger has a third flow duct which is flowed through by the MT coolant of the MT coolant circuit , in that the heat-dissipating heat exchanger has a fourth flow duct which is flowed through by the operating medium to be cooled of the ER device , in that the flow ducts are configured so as to run parallel to one another and so as to run in a rectilinear manner, and in that the heat-dissipating heat exchanger is connected to the coolant circuits and the ER device in such a way that the first to third flow ducts are flowed through in a first flow direction by the coolant of the coolant circuits , and the fourth flow duct is flowed through by the operating medium of the ER device in a second flow direction which is opposed to the first flow direction.
Stator of a polyphase rotary electric machine , in particular an alternator, having: - a stator body having a plurality of slots , and in particular comprising a lamination stack, - a coil having a plurality of wires that are inserted into the slots in the stator body and define a plurality of phases, the wires forming bundles on either side of the stator body , each bundle (30; 31) having a substantially annular top , the coil having at least one input and one output that are electrically linked to one of the phases of the coil , characterized in that it also has: a guide member (70; 100; 120) of circular shape disposed on one of the bundles , guiding at least one of the wires of the coil, following a portion of the length thereof, along a portion of the circumference of the top of the bundle , and wherein the guide member (70; 100; 120) holds an end portion of this wire, said wire end portion forming one of the input and the output of one of the phases of the coil, the guide member having an upper crown and a lower crown that is connected to the upper crown by a substantially frustoconical wall that diverges in the direction of the bundle of the stator coil . - a stator body having a plurality of slots , and in particular comprising a lamination stack, - a coil having a plurality of wires that are inserted into the slots in the stator body and define a plurality of phases, the wires forming bundles on either side of the stator body , each bundle (30; 31) having a substantially annular top , the coil having at least one input and one output that are electrically linked to one of the phases of the coil ,
A method for transmitting an uplink, UL, signal by a user equipment, UE, in a wireless communication system, the method comprising: generating a sequence for UL signal transmission; and transmitting, based on the generated sequence, the UL signal on a plurality of frequency resource units included in a frequency band, each of the plurality of frequency resource units including a plurality of sub-carriers, characterized in that , the generation of the sequence for the UL signal transmission comprises: obtaining a plurality of cyclic shift, CS,-related values for the plurality of frequency resource units, wherein a CS hopping is performed based on each index of each frequency resource unit; and generating the sequence for the plurality of frequency resource units, based on a specific sequence and the plurality of CS-related values, wherein the specific sequence is cyclic-shifted with the plurality of CS-related values for the plurality of frequency resource units. generating a sequence for UL signal transmission; and transmitting, based on the generated sequence, the UL signal on a plurality of frequency resource units included in a frequency band, each of the plurality of frequency resource units including a plurality of sub-carriers, characterized in that , the generation of the sequence for the UL signal transmission comprises: obtaining a plurality of cyclic shift, CS,-related values for the plurality of frequency resource units, wherein a CS hopping is performed based on each index of each frequency resource unit; and generating the sequence for the plurality of frequency resource units, based on a specific sequence and the plurality of CS-related values, wherein the specific sequence is cyclic-shifted with the plurality of CS-related values for the plurality of frequency resource units. obtaining a plurality of cyclic shift, CS,-related values for the plurality of frequency resource units, wherein a CS hopping is performed based on each index of each frequency resource unit; and generating the sequence for the plurality of frequency resource units, based on a specific sequence and the plurality of CS-related values, wherein the specific sequence is cyclic-shifted with the plurality of CS-related values for the plurality of frequency resource units.
A motorized roller shade , comprising: a motor operable to rotate a roller tube onto which shade material is rolled or unrolled to respectively raise and lower the shade ; logic and control circuitry operable to actuate the motor and to communicate over a power over Ethernet network to receive commands indicative of a desired operation of the shade ; and a rechargeable battery positioned within the roller and in electrical communication with the logic and control circuitry and the motor , the battery operable to power the motor and the logic and control circuitry, wherein the logic and control circuitry includes a non-volatile memory that stores various shade and configuration parameters, including limits, memory positions, speed, schedules, target velocity, server hostname, network statistics, and other operational and physical parameters, and wherein the stored parameters allow the logic and control circuity to operate the shade autonomously in cases where network communication to a local or cloud server is interrupted. a motor operable to rotate a roller tube onto which shade material is rolled or unrolled to respectively raise and lower the shade ; logic and control circuitry operable to actuate the motor and to communicate over a power over Ethernet network to receive commands indicative of a desired operation of the shade ; and a rechargeable battery positioned within the roller and in electrical communication with the logic and control circuitry and the motor , the battery operable to power the motor and the logic and control circuitry, wherein the logic and control circuitry includes a non-volatile memory that stores various shade and configuration parameters, including limits, memory positions, speed, schedules, target velocity, server hostname, network statistics, and other operational and physical parameters, and wherein the stored parameters allow the logic and control circuity to operate the shade autonomously in cases where network communication to a local or cloud server is interrupted.
A method of hydrating N-[ -3,3a,4,4a,5,5a,6,6a-octahydro-1,3-dioxo-4,6-ethenocycloprop[f]isoindol-2 -yl]-4-(trifluoromethyl)-benzamide (STN-246) particles comprising exposing said particles to moisture by conveying volumes of air containing moisture to said particles; wherein the hydrated ST-246 is ST-246 polymorph Form I monohydrate, i.e. a monohydrate form that shows an X-ray powder diffraction pattern having characteristic peaks of about 7.63, 10.04, 11.47, 14.73, 15.21, 15.47, 16.06, 16.67, 16.98, 18.93, 19.96, 20.52, 20.79, 22.80, 25.16, 26.53, 27.20, 27.60, 29.60, 30.23, 30.49, 30.68, 31.14, 33.65, 34.33, 35.29, 35.56, 36.30, 37.36, 38.42, 38.66 degrees.
A suspension module for an electric motor inside a tubular casing of an electromechanical actuator for a closure or sun protection facility (I 1 , I 2 ), comprising a single-piece suspension member , extending along a longitudinal axis (X100, X200) intended to be aligned on a rotation axis (X16) of a rotor of the electric motor, the suspension member comprising several annular plates arranged perpendicular to the longitudinal axis and juxtaposed along this axis, including at least one intermediate annular plate (120 i , 220 i ), characterized in that each intermediate annular plate is connected to each of the two plates that are adjacent to it, by at least three connection bridges .
A cleaner comprising: a suction inlet configured to guide air into the cleaner; a dust separation unit comprising: a first cyclone unit configured to separate dust from air that is suctioned into the cleaner through the suction inlet ; and a second cyclone unit configured to separate dust from air that is discharged from the first cyclone unit , the second cyclone unit comprising a plurality of cyclone bodies that are configured to separate dust from the air that is discharged from the first cyclone unit ; a suction motor having a rotary impeller , the suction motor being configured to drive a rotation of the rotary impeller via an impeller shaft to generate a suction force that suctions air into the cleaner through the suction inlet ; a motor housing that is configured to house the suction motor and the impeller ; and a pre-filter ; characterized in that the pre-filter is configured to surround a portion of the motor housing located above a top of the second cyclone unit ; a first passage is located between a main body and the motor housing and is configured to guide air discharged from the second cyclone unit toward the pre-filter , wherein the air passed through the pre-filter go into the suction motor through the opening of motor housing. a suction inlet configured to guide air into the cleaner; a dust separation unit comprising: a first cyclone unit configured to separate dust from air that is suctioned into the cleaner through the suction inlet ; and a second cyclone unit configured to separate dust from air that is discharged from the first cyclone unit , the second cyclone unit comprising a plurality of cyclone bodies that are configured to separate dust from the air that is discharged from the first cyclone unit ; a first cyclone unit configured to separate dust from air that is suctioned into the cleaner through the suction inlet ; and a second cyclone unit configured to separate dust from air that is discharged from the first cyclone unit , the second cyclone unit comprising a plurality of cyclone bodies that are configured to separate dust from the air that is discharged from the first cyclone unit ; a suction motor having a rotary impeller , the suction motor being configured to drive a rotation of the rotary impeller via an impeller shaft to generate a suction force that suctions air into the cleaner through the suction inlet ; a motor housing that is configured to house the suction motor and the impeller ; and a pre-filter ; characterized in that the pre-filter is configured to surround a portion of the motor housing located above a top of the second cyclone unit ; a first passage is located between a main body and the motor housing and is configured to guide air discharged from the second cyclone unit toward the pre-filter , wherein the air passed through the pre-filter go into the suction motor through the opening of motor housing.
An implantable blood pump for use as a Left Ventricular Assist Device (LVAD), the implantable blood pump comprising: a housing having an inlet and an outlet and configured to be implanted at a patient's heart; a membrane assembly disposed within the housing proximal to the outlet , the membrane assembly including a tensioned flexible membrane coupled to a rigid ring , the tensioned flexible membrane having a central aperture ; an actuator disposed within the housing , the actuator having a stator assembly and an electromagnet assembly , the electromagnet assembly configured to selectively generate a magnetic field; characterised in that a magnetic ring is coupled to the rigid ring , the magnetic ring is concentrically suspended around the actuator and configured to reciprocate responsive to the magnetic field, wherein during operation blood enters the inlet , flows around the actuator and the magnetic ring , and is propelled across the membrane to the outlet . a housing having an inlet and an outlet and configured to be implanted at a patient's heart; a membrane assembly disposed within the housing proximal to the outlet , the membrane assembly including a tensioned flexible membrane coupled to a rigid ring , the tensioned flexible membrane having a central aperture ; an actuator disposed within the housing , the actuator having a stator assembly and an electromagnet assembly , the electromagnet assembly configured to selectively generate a magnetic field; characterised in that a magnetic ring is coupled to the rigid ring , the magnetic ring is concentrically suspended around the actuator and configured to reciprocate responsive to the magnetic field, wherein during operation blood enters the inlet , flows around the actuator and the magnetic ring , and is propelled across the membrane to the outlet .
A method for computer-implemented determination of improved control parameters (CP) of a number of wind turbines (T1,...,Tn) of a wind park, comprising the steps of: S1) receiving, by an interface (IF), one or more achieved parameters within a manufacturing tolerance range of characteristic values (AG, MP, MDM, TC, CR) for each of the number of wind turbines (T1,...,Tn); S2) determining, by a processing unit (PU), for each of the number of wind turbines (T1,...,Tn) a power versus wind speed map (PWM) which is calculated from a given turbine model (TM) with the one or more achieved parameters within the manufacturing tolerance range of the respective wind turbines (T1,...,Tn) as input parameters; S3) deriving, by the processing unit (PU), the control parameters (CP) for each of the number of wind turbines (T1,...,Tn) from their associated power versus wind speed map (PWM).
A method for determining a resource use of resources provided by one or more devices in order to carry out a service, the method comprising at a miner : - determining (S41) a latest block of a blockchain related to the service and a total resource information present in the latest block, wherein the total resource information represents the total amount of resources used by the one or more devices for providing the service since a defined starting point in time, - determining (S42) that a new use case of resources of a first device of the one or more devices has occurred which is not reflected by the total resource information and determining a new amount of the resources used by the first device during the new use case, - determining (S43) a new total resource information in which the total resource information is combined with the new amount of the resources and which reflects a complete use of the resources of the one or more devices from the defined starting point until determining the new total resource information, - generating (S44) a new block of the blockchain , adding the new total resource information to the new block , and adding the new block to the blockchain , wherein the defined starting point in time represents a beginning of a billing period in which a billing for the use of the resources is started, further comprising the steps of: - determining that the billing period should be closed, - determining the new total resource information present in a last block of the blockchain , - closing the blockchain , - informing a billing node of the new total resource information. - determining (S41) a latest block of a blockchain related to the service and a total resource information present in the latest block, wherein the total resource information represents the total amount of resources used by the one or more devices for providing the service since a defined starting point in time, - determining (S42) that a new use case of resources of a first device of the one or more devices has occurred which is not reflected by the total resource information and determining a new amount of the resources used by the first device during the new use case, - determining (S43) a new total resource information in which the total resource information is combined with the new amount of the resources and which reflects a complete use of the resources of the one or more devices from the defined starting point until determining the new total resource information, - generating (S44) a new block of the blockchain , adding the new total resource information to the new block , and adding the new block to the blockchain , wherein the defined starting point in time represents a beginning of a billing period in which a billing for the use of the resources is started, further comprising the steps of: - determining that the billing period should be closed, - determining the new total resource information present in a last block of the blockchain , - closing the blockchain , - informing a billing node of the new total resource information.