mhurhangee/ep-ind-claims huggingface dataset:
Method for controlling a reluctance motor having a rotor, which has a preferred direction in the aligned state, and a stator having at least two phases (phase 1, phase 2, 135a, 135b), characterised in that the method comprises the following steps: - energising at least a first phase (phase 1, 135a) and a second phase in order to excite the rotor to oscillate around the first (phase 1, 135a) or the second phase; - detecting the inductance values of the at least two phases (phase 1, phase 2, 135a, 135b) in order to determine the phase having the higher inductance value; - energising only the phase having the detected smaller inductance value in order to excite an oscillation of the rotor around this phase and detecting a first course of the inductance value of the other phase; and - starting the reluctance motor if, in the first course of the inductance value, a local maximum is followed by a further local maximum having a greater amplitude. - energising at least a first phase (phase 1, 135a) and a second phase in order to excite the rotor to oscillate around the first (phase 1, 135a) or the second phase; - detecting the inductance values of the at least two phases (phase 1, phase 2, 135a, 135b) in order to determine the phase having the higher inductance value; - energising only the phase having the detected smaller inductance value in order to excite an oscillation of the rotor around this phase and detecting a first course of the inductance value of the other phase; and - starting the reluctance motor if, in the first course of the inductance value, a local maximum is followed by a further local maximum having a greater amplitude.
A rat or mouse comprising in its germline genome at an endogenous immunoglobulin heavy chain locus a rearranged human immunoglobulin heavy chain variable region nucleotide sequence under the control of a promoter and operably linked to an endogenous heavy chain constant region gene sequence, wherein the rearranged heavy chain variable region nucleotide sequence encodes the sequence of V H 3-23/X 1 X 2 /J H, wherein X 1 is any amino acid, and X 2 is any amino acid, and wherein all endogenous functional V H, D H, and J H gene segments are deleted from the endogenous immunoglobulin heavy chain locus or rendered non-functional.
A rotary-wing aircraft comprising: a dual, counter-rotating, coaxial rotor system having an upper rotor system and a lower rotor system rotatable about a common axis of rotation; a sensor system within an airframe; an upper HHC actuator system to control said upper rotor system in an X-Y-Z axis; a lower HHC actuator system to control said lower rotor system in an X-Y-Z axis; wherein said upper HHC actuator system and said lower HHC actuator system each include a fore-aft cyclic actuator; a left-right cyclic actuator and a collective actuator, and are configured to respectively control an upper swashplate of said upper rotor system and a lower swashplate of said lower rotor system, a HHC controller in communication with said sensor system, said upper HHC actuator system, and said lower HHC actuator system to individually control said upper rotor system and said lower rotor system to reduce vibration, wherein said upper HHC actuator system and said lower HHC actuator system are configured to respectively control an upper rotor control system of said upper rotor system and a lower rotor control system of said lower rotor system, wherein the HHC controller is configured to individually control the fore-aft cyclic actuator, the left-right cyclic actuator and the collective actuator of the upper rotor system, and is configured to individually control the fore-aft cyclic actuator, the left-right cyclic actuator and the collective actuator of the lower rotor system independent of the fore-aft cyclic actuator, the left-right cyclic actuator and the collective actuator of the upper rotor system. a dual, counter-rotating, coaxial rotor system having an upper rotor system and a lower rotor system rotatable about a common axis of rotation; a sensor system within an airframe; an upper HHC actuator system to control said upper rotor system in an X-Y-Z axis; a lower HHC actuator system to control said lower rotor system in an X-Y-Z axis; wherein said upper HHC actuator system and said lower HHC actuator system each include a fore-aft cyclic actuator; a left-right cyclic actuator and a collective actuator, and are configured to respectively control an upper swashplate of said upper rotor system and a lower swashplate of said lower rotor system, a HHC controller in communication with said sensor system, said upper HHC actuator system, and said lower HHC actuator system to individually control said upper rotor system and said lower rotor system to reduce vibration, wherein said upper HHC actuator system and said lower HHC actuator system are configured to respectively control an upper rotor control system of said upper rotor system and a lower rotor control system of said lower rotor system, wherein the HHC controller is configured to individually control the fore-aft cyclic actuator, the left-right cyclic actuator and the collective actuator of the upper rotor system, and is configured to individually control the fore-aft cyclic actuator, the left-right cyclic actuator and the collective actuator of the lower rotor system independent of the fore-aft cyclic actuator, the left-right cyclic actuator and the collective actuator of the upper rotor system.
A method for fixing a movable first component of a micromechanical device on a stationary or movable second component of the device, wherein a lateral surface of the first component and a lateral surface of the second component face one another, wherein - a layer protruding over the lateral surface with a layer area is produced during the manufacture of the device on a side of the first and/or second component (4, 5) adjoining the lateral surface, and - the first component is moved against the second component in order to be fixed such that the protruding layer area is pushed over the side of the first or second component (4, 5) adjoining the lateral surface or, if a protruding layer is provided on both components (4, 5), the protruding layer areas are pushed on top of one another, and the protruding layer area adheres to the component (4, 5) lying thereunder or the protruding layer areas adhere to one another due to adhesion. - a layer protruding over the lateral surface with a layer area is produced during the manufacture of the device on a side of the first and/or second component (4, 5) adjoining the lateral surface, and - the first component is moved against the second component in order to be fixed such that the protruding layer area is pushed over the side of the first or second component (4, 5) adjoining the lateral surface or, if a protruding layer is provided on both components (4, 5), the protruding layer areas are pushed on top of one another, and the protruding layer area adheres to the component (4, 5) lying thereunder or the protruding layer areas adhere to one another due to adhesion.
A periphery monitoring device comprising: an acquisition section that acquires a current steering angle of a vehicle; an image acquisition section that acquires a captured image from an image capturing section that captures an image of a periphery of the vehicle; a detection section that acquires detection information of an object around the vehicle; and a control section that causes a display section to display a synthesized image including a vehicle image showing the vehicle and a periphery image showing the periphery of the vehicle based on the captured image, characterized in that when the object is detected on a course when the vehicle travels at the current steering angle by a predetermined distance, the control section causes a virtual vehicle image virtually showing a shape of the vehicle to be displayed in the synthesized image so as to be superimposed on a course to the object with a position of the vehicle, which is shown by the vehicle image, as a reference, the control section temporarily causes the virtual vehicle image to be a non-display state by operating a non-display switch of the virtual vehicle image on the virtual vehicle image, and the control section cancels the non-display state when a predetermined condition is satisfied. an acquisition section that acquires a current steering angle of a vehicle; an image acquisition section that acquires a captured image from an image capturing section that captures an image of a periphery of the vehicle; a detection section that acquires detection information of an object around the vehicle; and a control section that causes a display section to display a synthesized image including a vehicle image showing the vehicle and a periphery image showing the periphery of the vehicle based on the captured image, characterized in that when the object is detected on a course when the vehicle travels at the current steering angle by a predetermined distance, the control section causes a virtual vehicle image virtually showing a shape of the vehicle to be displayed in the synthesized image so as to be superimposed on a course to the object with a position of the vehicle, which is shown by the vehicle image, as a reference, the control section temporarily causes the virtual vehicle image to be a non-display state by operating a non-display switch of the virtual vehicle image on the virtual vehicle image, and the control section cancels the non-display state when a predetermined condition is satisfied.
Stabilisation device for a vehicle and/or a vehicle payload, wherein the stabilisation device comprises a detection device for registering an explosion, at least one driving mechanism for stabilising the vehicle and/or the vehicle payload, and a control device for activating the at least one driving mechanism in the case of an explosion registered by means of the detection device, wherein the driving mechanism comprises a propellant and a discrete ejection mass arranged separately from the propellant, wherein the propellant and the discrete ejection mass are designed and configured in such a way that when the control device activates the driving mechanism, the discrete ejection mass is accelerated by means of the propellant while applying a stabilising force to the vehicle and/or the vehicle payload, wherein a movably configured separating element is arranged between the propellant and the discrete ejection mass, wherein the separating element is designed and configured as a receiving element with a receiving space for receiving the discrete ejection mass, wherein the receiving element is arranged movably in the housing element and relative thereto.
A lighting device (1; 1') comprising: a communication unit for wireless communication between the lighting device and an external device; a solid-state lighting element electrically connected to the communication unit; a heat sink in thermal contact with the solid-state lighting element, the heat sink having a slot adapted to act as a slot antenna; and a feed antenna (11; 11') electrically connected to the communication unit, the feed antenna (11; 11') having at least one end tip (11a; 11a', 11b') arranged at the slot so as to enable the feed antenna (11; 11') and the slot to communicate by proximity coupling, and, wherein the feed antenna is a dipole antenna having two end tips (11a', 11b') located at the slot, and the slot is aligned with a gap between the two end tips (11a', 11b'). a communication unit for wireless communication between the lighting device and an external device; a solid-state lighting element electrically connected to the communication unit; a heat sink in thermal contact with the solid-state lighting element, the heat sink having a slot adapted to act as a slot antenna; and a feed antenna (11; 11') electrically connected to the communication unit, the feed antenna (11; 11') having at least one end tip (11a; 11a', 11b') arranged at the slot so as to enable the feed antenna (11; 11') and the slot to communicate by proximity coupling, and, wherein the feed antenna is a dipole antenna having two end tips (11a', 11b') located at the slot, and the slot is aligned with a gap between the two end tips (11a', 11b').
A hollow molded article comprising: a panel including a first resin sheet and a second resin sheet partly welded with the first resin sheet; and a flow channel disposed between the first resin sheet and the second resin sheet, and including a connection portion for external connection disposed on a peripheral edge of the panel, wherein the connection portion is formed by the first resin sheet and the second resin sheet, characterized in that the connection portion is a protruding pipe, and the protruding pipe is disposed so as to communicate with the flow channel and protrude externally from the peripheral edge of the panel, the protruding pipe including an opening portion at a tip end thereof. a panel including a first resin sheet and a second resin sheet partly welded with the first resin sheet; and a flow channel disposed between the first resin sheet and the second resin sheet, and including a connection portion for external connection disposed on a peripheral edge of the panel, wherein
Holding device for a semi-reflective plate for a head-up display of a motor vehicle, comprising: - a display mount that is fixed with respect to the vehicle and intended to receive the semi-reflective plate, - an adjusting cradle that is rotationally connected to the display mount about a first axis of rotation and comprises first coupling means, - a plate subassembly including the plate, said plate being connected to second coupling means and being designed to be moved between two positions by rotation in the display mount about a second axis of rotation of the plate that is coincident with the first axis of rotation: - a retracted position in which the plate can be removed from the display mount along an axis of translation, - a fixed position in which the first coupling means are intended to cooperate with the second coupling means in order to fix the plate in rotation and translation with respect to the adjusting cradle. - a display mount that is fixed with respect to the vehicle and intended to receive the semi-reflective plate, - an adjusting cradle that is rotationally connected to the display mount about a first axis of rotation and comprises first coupling means, - a plate subassembly including the plate, - a retracted position in which the plate can be removed from the display mount along an axis of translation, - a fixed position in which the first coupling means are intended to cooperate with the second coupling means in order to fix the plate in rotation and translation with respect to the adjusting cradle.
A display device comprising: a housing; at least one roller (141, 143) positioned inside the housing; a module cover comprising at least one apron; a display unit comprising a display panel configured to be rolled around the at least one roller (141, 143), wherein the display panel is coupled to the module cover, and a source printed circuit board, PCB, electrically connected to the display panel; a motor assembly; an upper bar coupled to an upper part of the display unit; at least one support portion having one side coupled to an end of the upper bar and having another side coupled to the motor assembly, the at least one support portion moving the upper bar up and down with an operation of the motor assembly; and a cable electrically connecting the source PCB to an electronic device inside the housing, wherein a through hole of the at least one apron penetrates a central portion of the at least one apron in a direction parallel to short sides (SS1, SS2) of the display panel when the display panel is extended, and a portion of the cable between the source PCB and the electronic device inside the housing is passed through the through hole of the at least one apron. a housing; at least one roller (141, 143) positioned inside the housing; a module cover comprising at least one apron; a display unit comprising a display panel configured to be rolled around the at least one roller (141, 143), wherein the display panel is coupled to the module cover, and a source printed circuit board, PCB, electrically connected to the display panel; a motor assembly; an upper bar coupled to an upper part of the display unit; at least one support portion having one side coupled to an end of the upper bar and having another side coupled to the motor assembly, the at least one support portion moving the upper bar up and down with an operation of the motor assembly; and a cable electrically connecting the source PCB to an electronic device inside the housing, wherein a through hole of the at least one apron penetrates a central portion of the at least one apron in a direction parallel to short sides (SS1, SS2) of the display panel when the display panel is extended, and a portion of the cable between the source PCB and the electronic device inside the housing is passed through the through hole of the at least one apron.
A single integrated circuit for generating a high voltage and selectively coupling the high voltage to a plurality of output pins, wherein the integrated circuit comprises: a voltage boost circuit having a high voltage output; a voltage reference coupled to the voltage boost circuit; a plurality of voltage level shifters/drivers, each one having a high voltage input coupled to the high voltage output of the voltage boost circuit and an independently controllable high voltage output each one coupled with one of said output pins; logic circuits coupled to the plurality of voltage level shifters/drivers, wherein the logic circuits control enablement of the high voltage outputs thereof; a serial-to-parallel interface coupled to the logic circuits and the voltage boost circuit, wherein the serial-to-parallel interface is configured to determine the output state of each level shifter/driver in a first mode or to configure boost voltage and current limit parameters of the voltage boost circuit in a second mode, and a soft start circuit coupled to the voltage boost circuit, arranged so that during a soft start after the voltage boost circuit was enabled, the outputs of the plurality of voltage level shifters/drivers are tri-stated a voltage boost circuit having a high voltage output; a voltage reference coupled to the voltage boost circuit; a plurality of voltage level shifters/drivers, each one having a high voltage input coupled to the high voltage output of the voltage boost circuit and an independently controllable high voltage output each one coupled with one of said output pins; logic circuits coupled to the plurality of voltage level shifters/drivers, wherein the logic circuits control enablement of the high voltage outputs thereof; a serial-to-parallel interface coupled to the logic circuits and the voltage boost circuit, wherein the serial-to-parallel interface is configured to determine the output state of each level shifter/driver in a first mode or to configure boost voltage and current limit parameters of the voltage boost circuit in a second mode, and a soft start circuit coupled to the voltage boost circuit, arranged so that during a soft start after the voltage boost circuit was enabled, the outputs of the plurality of voltage level shifters/drivers are tri-stated
Rolling device comprising: - a radial support able to turn about a rotation direction, - at least two wheels disposed around the rotation direction and disposed on either side of the radial support, wherein each wheel is able to move between a centred position in which the axis of the wheel is coaxial with the rotation direction and a decentred position in which the axis of the wheel is off-centre and parallel to the rotation direction, - at least two rods extending in a longitudinal direction (X'), wherein each rod passes through a first housing of the radial support where it is inclinable with respect to the radial support, wherein, for each rod, each wheel has a second housing where said rod is inclinable with respect to the wheel, and through which said rod is able to slide in translation in the longitudinal direction (X'), - for each wheel, guidance means provided for guiding said wheel in a plane perpendicular to the rotation direction, and - for at least one wheel, at least one control system provided for adopting an idle position when the wheel is in a centred position and an activation position when the wheel is in a decentred position, wherein, in the activation position, the at least one control system tends to return the wheel to its centred position. - a radial support able to turn about a rotation direction, - at least two wheels disposed around the rotation direction and disposed on either side of the radial support, wherein each wheel is able to move between a centred position in which the axis of the wheel is coaxial with the rotation direction and a decentred position in which the axis of the wheel is off-centre and parallel to the rotation direction, - at least two rods extending in a longitudinal direction (X'), wherein each rod passes through a first housing of the radial support where it is inclinable with respect to the radial support, wherein, for each rod, each wheel has a second housing where said rod is inclinable with respect to the wheel, and through which said rod is able to slide in translation in the longitudinal direction (X'), - for each wheel, guidance means provided for guiding said wheel in a plane perpendicular to the rotation direction, and - for at least one wheel, at least one control system provided for adopting an idle position when the wheel is in a centred position and an activation position when the wheel is in a decentred position, wherein, in the activation position, the at least one control system tends to return the wheel to its centred position.
An air conditioning system comprising: a chiller system including a compressor, a condenser, an expansion device and an evaporator; a phase change material in thermal communication with the condenser; an actuator coupled to the phase change material; and a controller providing a trigger signal to the actuator to initiate changing the phase change material from a supercooled state to a solid state. a chiller system including a compressor, a condenser, an expansion device and an evaporator; a phase change material in thermal communication with the condenser; an actuator coupled to the phase change material; and a controller providing a trigger signal to the actuator to initiate changing the phase change material from a supercooled state to a solid state.