mhurhangee/patent-ind-claim-en huggingface dataset:
An aerial system for locking-on to a target object in a target region, the aerial system comprising: a first aircraft equipped with a first radar system and a first communication system , wherein the first radar system comprises a radar transmitter, configured to transmit and receive a radar beam ; a second aircraft equipped with a radar reflector and a second communication system , wherein the radar reflector is configured to reflect a radar beam from the radar transmitter to the target region, and wherein the second communication system is configured to communicate bi-directionally with the first communication system ; and a user interface operatively coupled with the first communication system , wherein the user interface is configured to receive inputs from a user to control an operation of the second aircraft to reflect the radar beam from the radar transmitter to the target object in the target region, wherein the first aircraft comprises a targeting system to receive location information of the target object from the radar transmitter to achieve a radar lock-on of the target object and, wherein the first aircraft is configured to house the second aircraft and deploy the second aircraft . a first aircraft equipped with a first radar system and a first communication system , wherein the first radar system comprises a radar transmitter, configured to transmit and receive a radar beam ; a second aircraft equipped with a radar reflector and a second communication system , wherein the radar reflector is configured to reflect a radar beam from the radar transmitter to the target region, and wherein the second communication system is configured to communicate bi-directionally with the first communication system ; and a user interface operatively coupled with the first communication system , wherein the user interface is configured to receive inputs from a user to control an operation of the second aircraft to reflect the radar beam from the radar transmitter to the target object in the target region, wherein the radar reflector is configured to reflect a radar beam from the radar transmitter to the target region, and wherein the second communication system is configured to communicate bi-directionally with the first communication system ; and a user interface operatively coupled with the first communication system , wherein the user interface is configured to receive inputs from a user to control an operation of the second aircraft to reflect the radar beam from the radar transmitter to the target object in the target region, wherein the first aircraft comprises a targeting system to receive location information of the target object from the radar transmitter to achieve a radar lock-on of the target object and, wherein the first aircraft is configured to house the second aircraft and deploy the second aircraft .
Method for processing a pulse ( S ) generated by a detector of ionizing radiation, the detector being able to interact with ionizing radiation in order to generate said pulse, the amplitude ( A ) of which depends on an energy liberated by the ionizing radiation during its interaction in the detector, the method comprising the following steps: a) exposing the detector to a source of ionizing radiation so as to obtain, at a measurement time ( t ), a pulse ( S ) called the measurement pulse; b) shaping the measurement pulse, using a first shaping duration ( δt 1 ), and determining a first amplitude ( A ' 1 ) of the measurement pulse thus shaped; and c) correcting the first amplitude determined in step b), by taking into account a correction factor ( η ), so as to obtain a corrected amplitude (A' c ); the correction factor ( η ) being determined by taking into account pulses, called pulses of interest ( S 1 ... S N ,S calib ), formed by the detector during an exposure to the source or to a calibration source, prior and/or subsequent to the measurement pulse , during a time range of interest (Δ t ), the determination of the correction factor comprising, for each pulse of interest, the following steps: i) shaping the pulse of interest, in a first shaping operation, using the first shaping duration ( δt 1 ), and measuring a first amplitude of the pulse of interest thus shaped; ii) shaping the pulse of interest, in a second shaping operation, using a second shaping duration ( δt 2 ) that is different from the first shaping duration, and measuring a second amplitude of the pulse of interest thus shaped; and iii) comparing the first amplitude and the second amplitude of the pulse of interest, so as to calculate a comparison factor ( k, k 1 ... k N , k calib ); the correction factor ( η ) being determined depending on the comparison factors ( k, k 1 , ..., k N , k calib ) calculated, in step iii), for each pulse of interest. a) exposing the detector to a source of ionizing radiation so as to obtain, at a measurement time ( t ), a pulse ( S ) called the measurement pulse; b) shaping the measurement pulse, using a first shaping duration ( δt 1 ), and determining a first amplitude ( A ' 1 ) of the measurement pulse thus shaped; and c) correcting the first amplitude determined in step b), by taking into account a correction factor ( η ), so as to obtain a corrected amplitude (A' c ); i) shaping the pulse of interest, in a first shaping operation, using the first shaping duration ( δt 1 ), and measuring a first amplitude of the pulse of interest thus shaped; ii) shaping the pulse of interest, in a second shaping operation, using a second shaping duration ( δt 2 ) that is different from the first shaping duration, and measuring a second amplitude of the pulse of interest thus shaped; and iii) comparing the first amplitude and the second amplitude of the pulse of interest, so as to calculate a comparison factor ( k, k 1 ... k N , k calib );
A wound treatment apparatus for treatment of a wound site comprising: a wound dressing for use in negative pressure wound therapy comprising a backing layer having an upper surface and a lower surface and defining a perimeter configured to be positioned over skin surrounding a wound site, wherein the backing layer is configured to maintain negative pressure over the wound site; a first portion underneath the backing layer comprising at least one material layer configured to transmit negative pressure to the wound site wherein the first portion comprises one or more of a transmission layer and an absorbent layer; and a bridging portion underneath the backing layer comprising at least one material layer configured to transmit negative pressure from the first portion through the bridging portion, wherein the bridging portion has a width that is less than 1/3 the width of adjacent portions of absorbent material and/or one or more transmission layers of the first portion. a wound dressing for use in negative pressure wound therapy comprising a backing layer having an upper surface and a lower surface and defining a perimeter configured to be positioned over skin surrounding a wound site, wherein the backing layer is configured to maintain negative pressure over the wound site; a first portion underneath the backing layer comprising at least one material layer configured to transmit negative pressure to the wound site wherein the first portion comprises one or more of a transmission layer and an absorbent layer; and a bridging portion underneath the backing layer comprising at least one material layer configured to transmit negative pressure from the first portion through the bridging portion, wherein the bridging portion has a width that is less than 1/3 the width of adjacent portions of absorbent material and/or one or more transmission layers of the first portion.
A measurement apparatus for measuring an electronic device that vibrates a touch surface to present a tactile sensation, the measurement apparatus comprising: a pressing portion configured to apply pressure to a touch surface ; a vibration detector configured to detect vibration of the touch surface , the vibration being produced in response to pressure applied to the touch surface ; characterized in that , the measurement apparatus further comprises: a pressure detector configured to detect the pressure applied to the touch surface ; and a controller , wherein the controller is configured to quantitatively measure the tactile sensation presented by the electronic device based on the vibration detected by the vibration detector and the pressure detected by the pressure detector . a pressing portion configured to apply pressure to a touch surface ; a vibration detector configured to detect vibration of the touch surface , the vibration being produced in response to pressure applied to the touch surface ; characterized in that , the measurement apparatus further comprises: a pressure detector configured to detect the pressure applied to the touch surface ; and a controller , wherein the controller is configured to quantitatively measure the tactile sensation presented by the electronic device based on the vibration detected by the vibration detector and the pressure detected by the pressure detector . a pressure detector configured to detect the pressure applied to the touch surface ; and a controller , wherein the controller is configured to quantitatively measure the tactile sensation presented by the electronic device based on the vibration detected by the vibration detector and the pressure detected by the pressure detector .
Apparatus for bone densitometry , comprising: - a patient-carrier frame with a support surface comprising a scanning area and being configured to support a lying patient; - an arm movable with respect to the patient-carrier frame in a longitudinal direction (X) by means of a longitudinal movement system , from the feet to the head of the patient lying on the support surface, and comprising a generator-detector assembly comprising an X-ray generator and an X-ray detector , which are mechanically aligned so that the collimated beam (F) of X-rays produced by the generator centres the X-ray detector ; - a control unit which is configured to implement Dual Energy X-ray Absorptiometry (DEXA) ; characterised in that the patient-carrier frame is a monocoque , that is a single rigid structure with bearing function, and consists of a single sheet of aluminium ,which has been folded to form the patient-carrier table, and which fully supports the arm , in that the longitudinal movement system is attached to a lower side of the support surface, which is opposite to the side on which the patient lies, in order to leave the space underneath the patient-carrier frame free, and in that the scanning area is formed by reducing the thickness of the frame to create a filtering portion for the X-rays. - a patient-carrier frame with a support surface comprising a scanning area and being configured to support a lying patient; - an arm movable with respect to the patient-carrier frame in a longitudinal direction (X) by means of a longitudinal movement system , from the feet to the head of the patient lying on the support surface, and comprising a generator-detector assembly comprising an X-ray generator and an X-ray detector , which are mechanically aligned so that the collimated beam (F) of X-rays produced by the generator centres the X-ray detector ; - a control unit which is configured to implement Dual Energy X-ray Absorptiometry (DEXA) ;
A transfer arrangement for transfer of packaging containers from a first conveyor arrangement to a second conveyor arrangement , wherein the transfer arrangement comprises at least one gripper configured to engage the packaging containers frictionally and wherein the gripper comprises gripper elements configured to interact with a constructional detail of the packaging container so as to secure the packaging container, the gripper comprising gripper jaws arranged to clamp a portion of the packaging container by engaging it frictionally, wherein the gripper is arranged to open and release by the operation of a cam follower following at least one cam curve on the transfer arrangement, characterized in that the gripper is operationally connected to the at least one cam curve such that the at least one cam curve may control at least a vertical position of the gripper .
Method of combusting fuel with oxidizer by means of a burner comprising a main injector assembly and a refractory burner block , whereby • the main injector assembly terminates in an injection end which comprises at least one metallic injector , • the block comprises a main passage bordered by a surrounding passage surface and extending along an axis from a cold face of the block to a hot face of the block opposite the cold face, • the main passage defines a main injection direction X parallel to the axis and has an upstream section adjacent the cold face and a downstream section downstream of the upstream section and adjacent the hot face , said downstream section terminating in a main injection opening in the hot face of the block, and • the injection end of the main injector assembly is positioned in the upstream section of the main passage so that the upstream section surrounds the at least one metallic injector , method whereby: • a flow of main fuel and flow of main oxidizer are injected according to main injection direction X towards and into the downstream section of the main passage by means of the injector end of the main injector assembly, wherein • the burner block further comprises multiple auxiliary passages terminating in the downstream section via n auxiliary openings in the surrounding surface of the main passage , whereby n ≥ 2 and • n jets of agitating gas are injected into the downstream section via the n auxiliary openings so as to interact with the flow of main fuel and the flow of main oxidizer and to increase turbulence and mixing thereof. • the main injector assembly terminates in an injection end which comprises at least one metallic injector , • the block comprises a main passage bordered by a surrounding passage surface and extending along an axis from a cold face of the block to a hot face of the block opposite the cold face, • the main passage defines a main injection direction X parallel to the axis and has an upstream section adjacent the cold face and a downstream section downstream of the upstream section and adjacent the hot face , said downstream section terminating in a main injection opening in the hot face of the block, and • the injection end of the main injector assembly is positioned in the upstream section of the main passage so that the upstream section surrounds the at least one metallic injector , • a flow of main fuel and flow of main oxidizer are injected according to main injection direction X towards and into the downstream section of the main passage by means of the injector end of the main injector assembly, • the burner block further comprises multiple auxiliary passages terminating in the downstream section via n auxiliary openings in the surrounding surface of the main passage , whereby n ≥ 2 and • n jets of agitating gas are injected into the downstream section via the n auxiliary openings so as to interact with the flow of main fuel and the flow of main oxidizer and to increase turbulence and mixing thereof.
Motor bearing arrangement for a motor , in particular of a fan of a vehicle air-conditioning unit, having a frame , having a support which partially overlaps the frame at least in a connecting region, and having multiple damping elements which are provided between the frame and the support in the connecting region, wherein the support is held on the frame by means of the damping elements , wherein projections extend outward from the support and flange sections extend inward from the frame , which flange sections overlap the projections in an axial direction, wherein the damping elements are provided in each case axially between a projection and the flange section that overlaps the projection , wherein the projections have at least one tooth which extends in the direction of the overlapping flange section , wherein the at least one tooth extends into the damping element and is completely surrounded by the damping element , characterised in that the flange sections have at least one tooth which extends in the direction of the overlapping projection , and which extends into the damping element and is completely surrounded by the damping element . wherein projections extend outward from the support and flange sections extend inward from the frame , which flange sections overlap the projections in an axial direction, wherein the damping elements are provided in each case axially between a projection and the flange section that overlaps the projection , wherein the projections have at least one tooth which extends in the direction of the overlapping flange section , wherein the at least one tooth extends into the damping element and is completely surrounded by the damping element , characterised in that the flange sections have at least one tooth which extends in the direction of the overlapping projection , and which extends into the damping element and is completely surrounded by the damping element .
An automotive body domain architecture of a vehicle, the architecture including a pushbutton panel (408, 410; 562) associated with a wireless communication module and an actuator system, the actuator system comprising: 1.1 a motor assembly including: 1.1.1 a shaft carrying a coil and a commutator ; 1.1.2 at least one brush associated with the commutator ; and 1.1.3 a sensor configured to sense a rotational position of at least one of the shaft , coil and commutator ; 1.2 a wireless communication module connected to the sensor and to the at least one brush , the module being configured to: 1.2.1 receive wireless signals from an external source the external source being the wireless communication module associated with the pushbutton panel (408, 410; 562); and 1.2.2 transmit drive signals to the at least one brush dependent upon the wireless signals and upon signals received from the sensor ; and 1.3 a housing containing each of the motor assembly and the communication module ; wherein the wireless communication module associated with the pushbutton panel is adapted to wirelessly transmit a command signal to the wireless communication module of the motor assembly. 1.1 a motor assembly including: 1.1.1 a shaft carrying a coil and a commutator ; 1.1.2 at least one brush associated with the commutator ; and 1.1.3 a sensor configured to sense a rotational position of at least one of the shaft , coil and commutator ; 1.1.1 a shaft carrying a coil and a commutator ; 1.1.2 at least one brush associated with the commutator ; and 1.1.3 a sensor configured to sense a rotational position of at least one of the shaft , coil and commutator ; 1.2 a wireless communication module connected to the sensor and to the at least one brush , the module being configured to: 1.2.1 receive wireless signals from an external source the external source being the wireless communication module associated with the pushbutton panel (408, 410; 562); and 1.2.2 transmit drive signals to the at least one brush dependent upon the wireless signals and upon signals received from the sensor ; and 1.2.1 receive wireless signals from an external source the external source being the wireless communication module associated with the pushbutton panel (408, 410; 562); and 1.2.2 transmit drive signals to the at least one brush dependent upon the wireless signals and upon signals received from the sensor ; and 1.3 a housing containing each of the motor assembly and the communication module ; wherein the wireless communication module associated with the pushbutton panel is adapted to wirelessly transmit a command signal to the wireless communication module of the motor assembly.
An electrical power system for regenerative loads , the system including a left sub-system corresponding to a left side of an aircraft and a right sub-system corresponding to a right side of the aircraft, each of the sub-systems comprising: a DC bus ; an electrical actuator load coupled to the DC bus, wherein back-driving the electrical actuator load generates regenerative electrical energy, and wherein the electrical actuator load is configured to transmit the regenerative electrical energy to the DC bus; at least one additional load coupled to the DC bus, wherein at least a portion of the regenerative electrical energy is transmitted to the at least one additional load; a battery charger , wherein at least a portion of the regenerative electrical energy is transmitted to the battery charger; a battery coupled to the DC bus and configured to be charged by the battery charger; an AC bus ; and a rectifier configured to convert AC electrical energy from the AC bus into DC electrical energy and to transmit the DC electrical energy to the DC bus; wherein the system further comprises a bus power control unit configured to connect the left or right battery charger to the corresponding DC bus in response to the corresponding battery having a state-of-charge that is less than a first threshold charge, and configured to disconnect the left or right rectifier from the corresponding AC bus in response to the corresponding battery having a state-of-charge that is greater than a second threshold charge; and wherein the left DC bus and the right DC bus are configured to transmit electrical energy between each other in response to a control signal from the bus power control unit. a DC bus ; an electrical actuator load coupled to the DC bus, wherein back-driving the electrical actuator load generates regenerative electrical energy, and wherein the electrical actuator load is configured to transmit the regenerative electrical energy to the DC bus; at least one additional load coupled to the DC bus, wherein at least a portion of the regenerative electrical energy is transmitted to the at least one additional load; a battery charger , wherein at least a portion of the regenerative electrical energy is transmitted to the battery charger; a battery coupled to the DC bus and configured to be charged by the battery charger; an AC bus ; and a rectifier configured to convert AC electrical energy from the AC bus into DC electrical energy and to transmit the DC electrical energy to the DC bus; wherein the system further comprises a bus power control unit configured to connect the left or right battery charger to the corresponding DC bus in response to the corresponding battery having a state-of-charge that is less than a first threshold charge, and configured to disconnect the left or right rectifier from the corresponding AC bus in response to the corresponding battery having a state-of-charge that is greater than a second threshold charge; and wherein the left DC bus and the right DC bus are configured to transmit electrical energy between each other in response to a control signal from the bus power control unit.
A process for preparing a compound having the formula: comprising: reacting a substituted aryl boronic acid: with 3,5-dihalo-2-cyanopyridine: in the presence of a catalyst, wherein ring A is phenyl, R 10 represents from 1 to 5 independently chosen substitutions for hydrogen that is halogen, and each Z is independently chloro or bromo. reacting a substituted aryl boronic acid: with 3,5-dihalo-2-cyanopyridine: in the presence of a catalyst, wherein ring A is phenyl, R 10 represents from 1 to 5 independently chosen substitutions for hydrogen that is halogen, and each Z is independently chloro or bromo. ring A is phenyl, R 10 represents from 1 to 5 independently chosen substitutions for hydrogen that is halogen, and each Z is independently chloro or bromo.