mhurhangee/ep-ind-claims huggingface dataset:
Motor vehicle door lock with a locking mechanism, further with at least one locking lever and with an electric drive (5, 6, 7) for the locking mechanism, wherein during normal operation the electric drive (5, 6, 7) acts upon the locking mechanism for electric opening and also ensures mechanical opening of the locking mechanism at least in emergency operation, and wherein the locking lever retains its "locked" position in normal operation at all times - including during electric opening, wherein - the electric drive (5, 6, 7) is equipped with a safety lock provided on the driven pulley thereof and during electric opening the locking lever assumes its "locked" position, in which it is retained by the safety lock, wherein - the safety lock has the form of a blocking contour which cooperates with a projection on the locking lever. - the electric drive (5, 6, 7) is equipped with a safety lock provided on the driven pulley thereof and during electric opening the locking lever assumes its "locked" position, in which it is retained by the safety lock, wherein - the safety lock has the form of a blocking contour which cooperates with a projection on the locking lever.
A method for beam training, the method being performed by a radio transceiver device, the method comprising: receiving, during a transmission beam sweep and using first receive beams (150a, 150b) of mutually different polarizations, a reference signal having been transmitted by another radio transceiver device during the transmission beam sweep in a set of transmit beams in order to determine which transmit beam in the set of transmit beams that has highest received power; determining (S106a) a difference between the received power in the first receive beams (150a, 150b) of mutually different polarizations; determining, based on which transmit beam in the set of transmit beams that has highest received power, a set of second receive beams (160a, 160b) to be used by the radio transceiver device during a reception beam sweep; and determining (S106b) how to, in terms of sub-sector coverage, constrain the second receive beams (160a, 160b) based on whether the difference exceeds a threshold power value or not. receiving, during a transmission beam sweep and using first receive beams (150a, 150b) of mutually different polarizations, a reference signal having been transmitted by another radio transceiver device during the transmission beam sweep in a set of transmit beams in order to determine which transmit beam in the set of transmit beams that has highest received power; determining (S106a) a difference between the received power in the first receive beams (150a, 150b) of mutually different polarizations; determining, based on which transmit beam in the set of transmit beams that has highest received power, a set of second receive beams (160a, 160b) to be used by the radio transceiver device during a reception beam sweep; and determining (S106b) how to, in terms of sub-sector coverage, constrain the second receive beams (160a, 160b) based on whether the difference exceeds a threshold power value or not.
A method for measuring a film thickness of an SOI layer of an SOI wafer made up of a base wafer formed of a silicon single crystal including at least an insulator layer that is a silicon oxide film formed on the base wafer and the SOI layer which is formed on the insulator layer and is formed of a silicon single crystal, wherein an error of the measurement caused by a native oxide film is eliminated by measuring the characteristic X-rays of a specific element from the surface native oxide film of a mirror-polished wafer subjected to the same treatment as that performed on the SOI wafer, then a surface of the SOI layer is irradiated with an electron beam, characteristic X-rays are detected from a side of the SOI layer surface irradiated with the electron beam, characteristic X-rays being generated by exciting the specific element in the insulator layer with the electron beam that has passed through the SOI layer and has been attenuated in the SOI layer, and the film thickness of the SOI layer is calculated on the basis of an intensity of the detected characteristic X-rays, wherein the specific element is an oxygen atom in the silicon oxide film.
A wearable infusion device (10, 210) comprising: a reservoir (22, 222) that holds a liquid medicament; an outlet port (50, 250) that delivers the liquid medicament to a patient; a pump (24, 224) that holds a volume of the liquid medicament received from the reservoir (22, 222) and displaces substantially all of the volume of the liquid medicament when actuated; a first control (16, 216) movable between a first position and a second position, the first control, when in the first position, establishing a first fluid path between the reservoir (22, 222) and the pump (24, 224), and when in the second position, establishing a second fluid path between the pump (24, 224) and the outlet (50, 250); and a second control (18, 218) that actuates the pump (24, 224) only when the second fluid path has been established by the first control. a reservoir (22, 222) that holds a liquid medicament; an outlet port (50, 250) that delivers the liquid medicament to a patient; a pump (24, 224) that holds a volume of the liquid medicament received from the reservoir (22, 222) and displaces substantially all of the volume of the liquid medicament when actuated; a first control (16, 216) movable between a first position and a second position, the first control, when in the first position, establishing a first fluid path between the reservoir (22, 222) and the pump (24, 224), and when in the second position, establishing a second fluid path between the pump (24, 224) and the outlet (50, 250); and a second control (18, 218) that actuates the pump (24, 224) only when the second fluid path has been established by the first control.
A mounting bracket for an electrical motor, the mounting bracket comprising: a bottom surface configured to be mounted to a support structure, a first mounting interface configured to support a stator frame of a first size such that a respective first shaft obtains a first shaft height, said first mounting interface having a first distance from the bottom surface, and a second mounting interface configured to support a stator frame of a second size such that a respective second shaft obtains a second shaft height, said second mounting interface having a second distance from the bottom surface, the second distance being different from the first distance, wherein the mounting bracket is configured to result in the first shaft height and the second shaft height to become equal, the shaft height being defined by the distance between the axis of the motor shaft and the bottom surface. a bottom surface configured to be mounted to a support structure, a first mounting interface configured to support a stator frame of a first size such that a respective first shaft obtains a first shaft height, said first mounting interface having a first distance from the bottom surface, and a second mounting interface configured to support a stator frame of a second size such that a respective second shaft obtains a second shaft height, said second mounting interface having a second distance from the bottom surface, the second distance being different from the first distance, wherein the mounting bracket is configured to result in the first shaft height and the second shaft height to become equal, the shaft height being defined by the distance between the axis of the motor shaft and the bottom surface.
A method of preventing excessive battery passivation in an electronic meter reading module that is powered from a battery, the method comprising: collecting metering data from an associated meter on an ongoing basis using comparatively low-power circuitry that draws a first current from the battery; transmitting the metering data to a remote node through a wireless communication network at defined transmit times using a relatively high-power communication transceiver that is also powered by the battery and activated temporarily during the transmit times; and characterised by: performing dummy activations of the communication transceiver at additional times other than the defined transmit times, not for transmitting metering data but rather to draw a second current from the battery that is higher than the first current and reduces passivation layer buildup in the battery. collecting metering data from an associated meter on an ongoing basis using comparatively low-power circuitry that draws a first current from the battery; transmitting the metering data to a remote node through a wireless communication network at defined transmit times using a relatively high-power communication transceiver that is also powered by the battery and activated temporarily during the transmit times; and characterised by: performing dummy activations of the communication transceiver at additional times other than the defined transmit times, not for transmitting metering data but rather to draw a second current from the battery that is higher than the first current and reduces passivation layer buildup in the battery. performing dummy activations of the communication transceiver at additional times other than the defined transmit times, not for transmitting metering data but rather to draw a second current from the battery that is higher than the first current and reduces passivation layer buildup in the battery.
Multilayer composite for a security document and/or document of value, which multilayer composite comprises at least one data sheet having a data side and a title side and consisting of at least one fibrous layer and at least one layer (16, 17) made of a polymer and applied to at least one side of the fibrous layer, and having a printed image applied to the data side of the fibrous layer in a print area, wherein at least the region of the fibrous layer that is covered by the printed image is impregnated, at least in some regions, in order to change the opacity of the fibrous layer, with a melt produced under pressure and with heating from a hot melt adhesive patch, and a see-through feature is formed.
A receptacle to support electric power supply, protection, indication and control components of a lighting fixture inside a cavity of a lighting pole, characterized in that said receptacle comprises push-operated fixing means, which support said receptacle inside said cavity at an access opening, said push-operated fixing means comprising screw-type locking elements, which support said receptacle by friction against the internal surface of said cavity by applying a tightening torque.
A method of imaging a region in a scattering medium by diffuse luminescence molecular imaging, the method comprising: providing at least one non-linear luminescent marker in said scattering medium at a marker position in said region, exciting said non-linear luminescent marker by pulsed excitation light emitted by one or more light sources into an excitation volume from at least one light source position, and detecting luminescence from said luminescent marker due to said excitation light by a detector at a luminescent light detection position, and wherein said pulsed excitation light comprises at least one pulse of light, characterized by determining a pulse length (w) of said at least one pulse of light based on a calculation of energy level transition conditions of said non-linear luminescent marker, and matching the pulse length (w) of said at least one pulse of light with the duration of the lifetimes of the excited states that are involved in the emission process of said non-linear luminescent marker to provide for a desired scheme of population of energy levels of said non-linear luminescent marker related to emission of upconverted light so that said upconverted light is produced in an efficient manner. providing at least one non-linear luminescent marker in said scattering medium at a marker position in said region, exciting said non-linear luminescent marker by pulsed excitation light emitted by one or more light sources into an excitation volume from at least one light source position, and detecting luminescence from said luminescent marker due to said excitation light by a detector at a luminescent light detection position, and wherein said pulsed excitation light comprises at least one pulse of light, characterized by determining a pulse length (w) of said at least one pulse of light based on a calculation of energy level transition conditions of said non-linear luminescent marker, and matching the pulse length (w) of said at least one pulse of light with the duration of the lifetimes of the excited states that are involved in the emission process of said non-linear luminescent marker to provide for a desired scheme of population of energy levels of said non-linear luminescent marker related to emission of upconverted light so that said upconverted light is produced in an efficient manner.
A high voltage transformer comprising - a core, - a low voltage coil on the core, and - a high voltage coil on the core, wherein the core comprises a pair of E cores forming a centre leg and two outer legs, each outer leg with an air gap between opposing legs of the E cores for forming a stray magnetic field, with the low voltage coil and the high voltage coil on the centre leg and the high voltage coil comprising two half-coils, wherein the low voltage coil is placed between the two half-coils, and wherein there is a distance from the low voltage coil to the air gaps, and the two half-coils of the high voltage coil are kept apart so that the windings are kept out of the stray magnetic field, characterized in that the high voltage coil has a plurality of insulating carrier substrates (600, 700) in an overlaying arrangement, each carrier substrate (600, 700)carrying an electrically conductive trace (610, 710) with end portions (611, 613, 711, 713), the trace forming one or more turns around the core, and a first connector pad (612, 714) connecting a respective end portion (611, 713) of the trace (610, 710) on the substrate (600, 700) to a respective end portion (711, 613) of the trace (710, 610) on an overlaying substrate (700, 600) of the plurality of insulating carrier substrates (600,700), wherein each carrier substrate (600, 700) carries its conductive trace (610, 710) on one substrate surface and a second connector pad (614, 712) is on the opposing substrate surface with an electrical connection through the substrate (600, 700) connecting the second connector pad (614, 712) to a respective end portion (613, 711) of the conductive trace (610, 710). - a core, - a low voltage coil on the core, and - a high voltage coil on the core,
Electric motor nacelle for a vertical take-off and landing (VTOL) aircraft comprising: - a electric motor, - a fairing wherein the electric motor is housed equipped with at least one propeller extending outwards from a top face of the fairing, and - a cooling device designed to cool the electric motor when the aircraft is in take-off, cruise and landing phases and comprising a reversible coolant fluid supply and exhaust manifold, designed, alternately: ∘in the cruise phase, to receive a stream of cold fluid generated by the movement of the aircraft and to convey this stream of fluid, through the motor, towards an outlet situated opposite the propeller, and ∘in the take-off or landing phase, to receive a stream of cooling fluid transmitted by the propeller and having passed through the motor, the stream of fluid being heated by contact with heat exchange surfaces of said motor. - a electric motor, - a fairing wherein the electric motor is housed equipped with at least one propeller extending outwards from a top face of the fairing, and - a cooling device designed to cool the electric motor when the aircraft is in take-off, cruise and landing phases and comprising a reversible coolant fluid supply and exhaust manifold, designed, alternately: ∘in the cruise phase, to receive a stream of cold fluid generated by the movement of the aircraft and to convey this stream of fluid, through the motor, towards an outlet situated opposite the propeller, and ∘in the take-off or landing phase, to receive a stream of cooling fluid transmitted by the propeller and having passed through the motor, the stream of fluid being heated by contact with heat exchange surfaces of said motor. ∘in the cruise phase, to receive a stream of cold fluid generated by the movement of the aircraft and to convey this stream of fluid, through the motor, towards an outlet situated opposite the propeller, and ∘in the take-off or landing phase, to receive a stream of cooling fluid transmitted by the propeller and having passed through the motor, the stream of fluid being heated by contact with heat exchange surfaces of said motor.
A method of manufacturing a device comprising a plurality of micro-machined ultrasonic transducer cells in a first region on a substrate and a plurality of interconnects in a second region on said substrate the method comprising: forming a dielectric layer stack (11, 13, 15, 17) over the substrate, said dielectric layer stack defining respective membranes of the micro-machined ultrasonic transducers in the first region; reducing thickness of the dielectric layer stack in the second region with respect to the thickness of the dielectric layer stack in the first region by partially etching away the dielectric layer stack in the second region; etching a plurality of trenches in the reduced thickness portion of the dielectric layer stack, each of said trenches exposing a conductive contact in the second region; and at least lining said trenches with a conductive material. forming a dielectric layer stack (11, 13, 15, 17) over the substrate, said dielectric layer stack defining respective membranes of the micro-machined ultrasonic transducers in the first region; reducing thickness of the dielectric layer stack in the second region with respect to the thickness of the dielectric layer stack in the first region by partially etching away the dielectric layer stack in the second region; etching a plurality of trenches in the reduced thickness portion of the dielectric layer stack, each of said trenches exposing a conductive contact in the second region; and at least lining said trenches with a conductive material.
Joint implant part (14, 18, 20) of a joint endoprosthesis, which joint implant part (14, 18, 20) comprises at least one first volume region, at least one second volume region and at least one third volume region, which at least one first volume region defines a bone contact surface region (38; 54) with at least one bone contact surface (32; 56), which at least one second volume region defines a joint surface region with at least one joint surface (36; 62) and which at least one third volume region comprises neither a bone contact surface nor a joint surface, wherein a modulus of elasticity in the at least one first and/or in the at least one second and/or in the at least one third volume region (52, 58, 64) changes continuously or substantially continuously or discontinuously in at least one spatial direction and wherein a firmness in the at least one first and/or in the at least one second and/or in the at least one third volume region (52, 58, 64) changes continuously or substantially continuously or discontinuously in at least one spatial direction, wherein the at least one first volume region and the at least one second volume region and the at least one third volume region are formed with at least one cavity, wherein a plurality of cavities are formed, wherein a total volume defined by the plurality of cavities in the at least one third volume region is greater than in the at least one first and in the at least one second volume region (52, 58) and wherein the joint implant part is in the form of a femur part of a knee joint endoprosthesis, which is fixable to a femur, and is of one-piece formation.
A turbine housing comprising: an outer housing portion which includes an inner wall internally forming a spiral space; a first heat shield core which separates the spiral space into a scroll flow passage where an exhaust gas flows and a heat shield space positioned on a side of the inner wall, the first heat shield core being disposed so as to face the inner wall in the spiral space; a variable nozzle unit for adjusting a flow of the exhaust gas from the scroll flow passage toward an impeller, the variable nozzle unit being disposed on a side opposite to the outer housing portion across the first heat shield core in an axial direction; characterized in that the turbine housing further comprises at least one annular seal member disposed between the first heat shield core and the outer housing portion in the axial direction. an outer housing portion which includes an inner wall internally forming a spiral space; a first heat shield core which separates the spiral space into a scroll flow passage where an exhaust gas flows and a heat shield space positioned on a side of the inner wall, the first heat shield core being disposed so as to face the inner wall in the spiral space; a variable nozzle unit for adjusting a flow of the exhaust gas from the scroll flow passage toward an impeller, the variable nozzle unit being disposed on a side opposite to the outer housing portion across the first heat shield core in an axial direction; characterized in that the turbine housing further comprises at least one annular seal member disposed between the first heat shield core and the outer housing portion in the axial direction.
A method for facilitating a downhole operation, the method comprising: providing a drilling fluid conditioning device in a proximal portion of a tubular string providing mounting for at least one tool on a distal downhole portion of the tubular string; circulating drilling fluid along a fluid circulating flow path including the drilling fluid conditioning device and the tubular string, to condition the drilling fluid; reconfiguring the fluid circulating flow path to bypass at least a portion of the drilling fluid conditioning device; and circulating conditioned drilling fluid through the tubular string and the at least one tool. providing a drilling fluid conditioning device in a proximal portion of a tubular string providing mounting for at least one tool on a distal downhole portion of the tubular string; circulating drilling fluid along a fluid circulating flow path including the drilling fluid conditioning device and the tubular string, to condition the drilling fluid; reconfiguring the fluid circulating flow path to bypass at least a portion of the drilling fluid conditioning device; and circulating conditioned drilling fluid through the tubular string and the at least one tool.