mhurhangee/patent-ind-claim-en huggingface dataset:
A gas turbine engine blade comprising: a dovetail portion comprising a first ceramic matrix composite; an airfoil portion comprising the first ceramic matrix composite, wherein the gas turbine engine blade defines a radial axis extending from a first end of the airfoil portion to a second, opposite end of the dovetail portion and an axial plane substantially normal to the radial axis; a transition portion between the airfoil portion and the dovetail portion , wherein the airfoil portion , the transition portion , and the dovetail portion comprise a plurality of fibers extending continuously from adjacent the first end to adjacent the second end ; and a platform portion that substantially surrounds the transition portion , wherein at least part of the platform portion extends parallel to the axial plane, characterised in that the airfoil portion defines a capture feature that forms a mechanical stop configured to engage with and mechanically restrain the platform portion from moving beyond the capture feature toward the first end of the airfoil portion, wherein the capture feature is located closer to the first end of the airfoil than at least part of the platform portion , wherein the capture feature extends in a direction parallel to the axial plane, and wherein the capture feature extends further in the direction parallel to the axial plane than a part of the transition portion adjacent to the capture feature . a dovetail portion comprising a first ceramic matrix composite; an airfoil portion comprising the first ceramic matrix composite, wherein the gas turbine engine blade defines a radial axis extending from a first end of the airfoil portion to a second, opposite end of the dovetail portion and an axial plane substantially normal to the radial axis; a transition portion between the airfoil portion and the dovetail portion , wherein the airfoil portion , the transition portion , and the dovetail portion comprise a plurality of fibers extending continuously from adjacent the first end to adjacent the second end ; and a platform portion that substantially surrounds the transition portion , wherein at least part of the platform portion extends parallel to the axial plane, characterised in that the airfoil portion defines a capture feature that forms a mechanical stop configured to engage with and mechanically restrain the platform portion from moving beyond the capture feature toward the first end of the airfoil portion, wherein the capture feature is located closer to the first end of the airfoil than at least part of the platform portion , wherein the capture feature extends in a direction parallel to the axial plane, and wherein the capture feature extends further in the direction parallel to the axial plane than a part of the transition portion adjacent to the capture feature .
Method for reducing the pressure in a load lock for a substrate at atmospheric pressure using a pump unit having a rough-vacuum pump and a high-vacuum pump arranged upstream of said rough-vacuum pump in the direction of flow of the gases being pumped, characterized in that , during the pressure drop and until the pressure in the load lock reaches a predefined low-pressure threshold, the rotational speed of the high-vacuum pump is controlled as a function of an operating parameter of the high-vacuum pump to increase the flow rate (SoR) generated by the high-vacuum pump such that the flow rate (SoR) generated by the high-vacuum pump remains within a range in which the upper value is six times the flow rate (Sol) generated by the rough-vacuum pump and the lower value is 1.3 times the flow rate (Sol) generated by the rough-vacuum pump.
A cold atom gravity gradiometer system comprising: a laser source that generates a laser beam that propagates along a propagation direction; a first reflector that reflects a first portion of the laser beam and transmits a second portion of the laser beam; and a second reflector spatially separated from the first reflector along the propagation direction, wherein the second reflector reflects at least part of the second portion of the laser beam; wherein the first reflector comprises: a first reflecting surface arranged to reflect the first portion of the laser beam to generate a plurality of first trapping laser beams for trapping a first sample of cold atoms; and a central hole arranged within the first reflector that allows at least part of the second portion of the laser beam to transmit through the first reflector. a laser source that generates a laser beam that propagates along a propagation direction; a first reflector that reflects a first portion of the laser beam and transmits a second portion of the laser beam; and a second reflector spatially separated from the first reflector along the propagation direction, wherein the second reflector reflects at least part of the second portion of the laser beam; wherein the first reflector comprises: a first reflecting surface arranged to reflect the first portion of the laser beam to generate a plurality of first trapping laser beams for trapping a first sample of cold atoms; and a central hole arranged within the first reflector that allows at least part of the second portion of the laser beam to transmit through the first reflector. a first reflecting surface arranged to reflect the first portion of the laser beam to generate a plurality of first trapping laser beams for trapping a first sample of cold atoms; and a central hole arranged within the first reflector that allows at least part of the second portion of the laser beam to transmit through the first reflector.
An attachment plate unit for attaching an implement to the front or rear of a vehicle, with an attachment plate , two lateral lower linking structures each comprising a lower eye , and a centred top linking structure comprising a top eye , characterized in that : the top linking structure comprises a top bracket rigidly connected with the attachment plate , relative to which top bracket the top eye is adjustable with two degrees of freedom in a plane perpendicular to the attachment plate ; the lower linking structures each comprise a lower bracket which can be fixed in different lateral positions relative to the attachment plate , which bracket has a mounting plate , the lateral position of which relative to the attachment plate is infinitely variable; the lower eyes are provided on respective eye tabs , which are attached to the respective mounting plate rotatably about an axis (D) which extends parallel to the attachment plate , wherein the attachment of the eye tab to the mounting plate permits the respective eye tab to rotate relative to the mounting plate about an axis (C) which is perpendicular to the attachment plate . the top linking structure comprises a top bracket rigidly connected with the attachment plate , relative to which top bracket the top eye is adjustable with two degrees of freedom in a plane perpendicular to the attachment plate ; the lower linking structures each comprise a lower bracket which can be fixed in different lateral positions relative to the attachment plate , which bracket has a mounting plate , the lateral position of which relative to the attachment plate is infinitely variable; the lower eyes are provided on respective eye tabs , which are attached to the respective mounting plate rotatably about an axis (D) which extends parallel to the attachment plate , wherein the attachment of the eye tab to the mounting plate permits the respective eye tab to rotate relative to the mounting plate about an axis (C) which is perpendicular to the attachment plate .
A radial piston hydraulic motor comprising a hollow rotating shaft inside the motor, which rotating shaft is arranged to rotate around its axial central axis A for providing torque from the radial piston hydraulic motor, wherein the rotating shaft comprises a piston frame with pistons , which are arranged to move radially, the piston frame comprises - a distribution surface , which is a flat surface in parallel plane with the radial movement of the pistons , and - a first inner surface extending in axial direction around the axial central axis A, characterized in that the rotating shaft comprises a half shaft having a second inner surface extending in axial direction around the axial central axis A, wherein piston frame and the half shaft are arranged adjacent to each other so that the first inner surface and the second inner surface form a surface, in axial direction, forming a cavity inside the rotating shaft for receiving a drive shaft. - a distribution surface , which is a flat surface in parallel plane with the radial movement of the pistons , and - a first inner surface extending in axial direction around the axial central axis A, the rotating shaft comprises a half shaft having a second inner surface extending in axial direction around the axial central axis A, wherein piston frame and the half shaft are arranged adjacent to each other so that the first inner surface and the second inner surface form a surface, in axial direction, forming a cavity inside the rotating shaft for receiving a drive shaft.
A core-sheath filament comprising: a) 90 to 99.9 weight percent of a core that is a thermally conductive pressure-sensitive adhesive, the core comprising 1) 2 to 50 weight percent of a (meth)acrylate-based polymeric material based on a total weight of the core; and 2) 50 to 98 weight percent of thermally conductive particles based on a total weight of the core; and b) 0.1 to 10 weight percent of a sheath surrounding the core, wherein the sheath comprises a thermoplastic material that is non-tacky; wherein the core-sheath filament has a diameter in a range of 1 to 20 millimeters. a) 90 to 99.9 weight percent of a core that is a thermally conductive pressure-sensitive adhesive, the core comprising 1) 2 to 50 weight percent of a (meth)acrylate-based polymeric material based on a total weight of the core; and 2) 50 to 98 weight percent of thermally conductive particles based on a total weight of the core; and 1) 2 to 50 weight percent of a (meth)acrylate-based polymeric material based on a total weight of the core; and 2) 50 to 98 weight percent of thermally conductive particles based on a total weight of the core; and b) 0.1 to 10 weight percent of a sheath surrounding the core, wherein the sheath comprises a thermoplastic material that is non-tacky;
A method for supporting anchorless backhaul in a mobile network, the mobile network including a first endpoint node configured to receive packets through a point-to-point tunnel from a second endpoint node, the method comprising: exposing, by the first endpoint node or a central repository of the mobile network, tunnel information identifying the point-to-point tunnel between the first endpoint node and the second endpoint node, such that at least one other node of the mobile network can access the exposed tunnel information; and providing, by the first endpoint node or the central repository, the exposed tunnel information to a third node of the at least one other node, wherein the exposed tunnel information is used by the third node to encapsulate a packet with a tunnel header, such that the first endpoint node will accept the encapsulated packet as having been sent by the second endpoint node through the point-to-point tunnel, wherein the tunnel information identifying the point-to-point tunnel comprises: an address of the first endpoint node; a port number of the point-to-point tunnel at the first endpoint node; and a Tunnel Endpoint Identifier, TEID, of the point-to-point tunnel assigned by the second endpoint node. exposing, by the first endpoint node or a central repository of the mobile network, tunnel information identifying the point-to-point tunnel between the first endpoint node and the second endpoint node, such that at least one other node of the mobile network can access the exposed tunnel information; and providing, by the first endpoint node or the central repository, the exposed tunnel information to a third node of the at least one other node, wherein the exposed tunnel information is used by the third node to encapsulate a packet with a tunnel header, such that the first endpoint node will accept the encapsulated packet as having been sent by the second endpoint node through the point-to-point tunnel, wherein the tunnel information identifying the point-to-point tunnel comprises: an address of the first endpoint node; a port number of the point-to-point tunnel at the first endpoint node; and a Tunnel Endpoint Identifier, TEID, of the point-to-point tunnel assigned by the second endpoint node. an address of the first endpoint node; a port number of the point-to-point tunnel at the first endpoint node; and a Tunnel Endpoint Identifier, TEID, of the point-to-point tunnel assigned by the second endpoint node.
Plug connector , - with a contact carrier which can be pushed onto a plug counterpart, such as a circuit board or contact blade, in the plug-in direction (X), - with a plug receptacle formed in front in the plug-in direction (X), which is formed by two contact carrier walls opposite each other, - with a plug-in gap inside of the plug receptacle , which has a width (W) adapted to include a plug counterpart, - with a plug receptacle base which is arranged opposite a plug opening of the plug receptacle , - with plug contacts arranged next to each other which are held by the contact carrier and sit in the plug receptacle , - with at least one clamping means which forms a clamping gap , which has a width (M) shorter than the width of the plug gap (W) and which can interact frictionally with the plug counterpart and reduces the movement leeway of the plug connector transversely to the plug-in direction (X), wherein - the clamping means is formed by a pair of clamping arms consisting of two clamping arms lying opposite each other, which form the clamping gap between them, - the plug gap and the clamping gap have at least one common gap plane, characterised in that - the contact carrier carries, in addition to the contacts, at least the clamping means , - at least one clamping arm is connected to the contact carrier near the plug opening and extends with its free end counter to the plug-in direction (X). - with a contact carrier which can be pushed onto a plug counterpart, such as a circuit board or contact blade, in the plug-in direction (X), - with a plug receptacle formed in front in the plug-in direction (X), which is formed by two contact carrier walls opposite each other, - with a plug-in gap inside of the plug receptacle , which has a width (W) adapted to include a plug counterpart, - with a plug receptacle base which is arranged opposite a plug opening of the plug receptacle , - with plug contacts arranged next to each other which are held by the contact carrier and sit in the plug receptacle , - with at least one clamping means which forms a clamping gap , which has a width (M) shorter than the width of the plug gap (W) and which can interact frictionally with the plug counterpart and reduces the movement leeway of the plug connector transversely to the plug-in direction (X), - the clamping means is formed by a pair of clamping arms consisting of two clamping arms lying opposite each other, which form the clamping gap between them, - the plug gap and the clamping gap have at least one common gap plane, - the contact carrier carries, in addition to the contacts, at least the clamping means , - at least one clamping arm is connected to the contact carrier near the plug opening and extends with its free end counter to the plug-in direction (X).
A method of generating a holographic reconstruction of an object using a display device, the display device including a light source, an optical system and a spatial light modulator, the optical system illuminates the spatial light modulator with light of the light source, wherein the optical system images the light source into an observer plane; the method comprising the steps of: generating a hologram by a computer by determining the wavefronts, restricted to a virtual observer window, at the observer eye position being located in the observer plane that would be generated by a real version of the object to be reconstructed; back-transforming the determined wavefronts to the spatial light modulator; encoding the hologram on the spatial light modulator; tracking the location of an observer's eye eyes by a position detection and tracking device; and achieving the tracking of the observer by a configurable diffractive optical element or a scanning mirror, which project light for the holographic reconstruction from the spatial light modulator to the observer's eye. generating a hologram by a computer by determining the wavefronts, restricted to a virtual observer window, at the observer eye position being located in the observer plane that would be generated by a real version of the object to be reconstructed; back-transforming the determined wavefronts to the spatial light modulator; encoding the hologram on the spatial light modulator; tracking the location of an observer's eye eyes by a position detection and tracking device; and achieving the tracking of the observer by a configurable diffractive optical element or a scanning mirror, which project light for the holographic reconstruction from the spatial light modulator to the observer's eye.
One or more non-transitory computer-readable media, CRM, comprising instructions to, upon execution of the instructions by one or more processors of a test equipment, TE, cause the TE to: generate a first signal that includes a frequency range 2, FR2, synchronization signal of a target power level S at a receiver reference point after receiver beamforming at a user equipment, UE, wherein the FR2 is from 24250 megahertz, MHz, to 52600 MHz; transmit the first signal via one or more transmitters to the, UE; generate a second signal that includes the FR2 synchronization signal and artificial correlated noise of power level N, based on a target signal-to-noise, SNR, value; and transmit the second signal via the one or more transmitters to the UE. generate a first signal that includes a frequency range 2, FR2, synchronization signal of a target power level S at a receiver reference point after receiver beamforming at a user equipment, UE, wherein the FR2 is from 24250 megahertz, MHz, to 52600 MHz; transmit the first signal via one or more transmitters to the, UE; generate a second signal that includes the FR2 synchronization signal and artificial correlated noise of power level N, based on a target signal-to-noise, SNR, value; and transmit the second signal via the one or more transmitters to the UE.
A lifting device for lifting a payload within an elevator shaft in a controllable manner, having: a platform to be fixed in the elevator shaft , a holding device to be fixed to the payload , a lifting cable which is attached to the holding device , a pulling device which is secured to the platform , a securing cable interacting with the holding device at a first coupling point and with the platform at a second coupling point, and a catching device , wherein the pulling device is designed to actively and controllably displace the lifting cable relative to the platform , wherein the lifting device is designed to displace the securing cable relative to the catching device in the event of a relative movement between the holding device and the platform such that the securing cable remains tensioned between the first and the second coupling point, and the securing cable and the catching device are designed such that the catching device blocks a further relative movement between the securing cable and the catching device in the event that the lifting cable fails. a platform to be fixed in the elevator shaft , a holding device to be fixed to the payload , a lifting cable which is attached to the holding device , a pulling device which is secured to the platform , a securing cable interacting with the holding device at a first coupling point and with the platform at a second coupling point, and a catching device , wherein the pulling device is designed to actively and controllably displace the lifting cable relative to the platform , wherein the lifting device is designed to displace the securing cable relative to the catching device in the event of a relative movement between the holding device and the platform such that the securing cable remains tensioned between the first and the second coupling point, and the securing cable and the catching device are designed such that the catching device blocks a further relative movement between the securing cable and the catching device in the event that the lifting cable fails.
A wet-cleaning device , in particular a wet wiping device, having a cleaning roller that can rotate around a roller axis , and has a cleaning lining with fibers having free ends, characterized in that the wet-cleaning device has a decelerating element to support the removal of liquid and/or dirt from the cleaning roller , which has an impact edge relative to the roller axis , and during a regeneration operation is arranged so as to radially cover the fibers of the cleaning lining to such an extent that the free ends of the mechanically unloaded fibers outwardly protrude over the impact edge in a radial direction.
A controller configured to power and modify a behavior of a lighting system , the controller comprising: a processor operatively coupled to a user input device to accept information from the user input device regarding a behavior of one or more lighting modules , of said lighting system, the information comprising a lighting zone , and a chronological schedule including at least a time and an intensity for at least one lighting module, and the processor outputting command and address data in response to the information; a power supply operably coupled between a power source and a two-wire communication network communicating with said one or more lighting modules, said power supply also operably coupled to said processor to receive said command and address data, said power supply modifying an input voltage of said power source to produce, at the scheduled time, a data encoded power signal responsive to a polarity of said input voltage and to said command and address data to send the data encoded power signal to the one or more lighting modules on the two-wire communication network , said data encoded power signal shaped substantially similar to a sinusoidal waveform when said data encoded power signal represents a data bit; and a fixture programming port configured to provide a lighting zone number to said at least one lighting module to program the lighting zone into said at least one lighting module when said at least one lighting module is connected to the fixture programming port. a processor operatively coupled to a user input device to accept information from the user input device regarding a behavior of one or more lighting modules , of said lighting system, the information comprising a lighting zone , and a chronological schedule including at least a time and an intensity for at least one lighting module, and the processor outputting command and address data in response to the information; a power supply operably coupled between a power source and a two-wire communication network communicating with said one or more lighting modules, said power supply also operably coupled to said processor to receive said command and address data, said power supply modifying an input voltage of said power source to produce, at the scheduled time, a data encoded power signal responsive to a polarity of said input voltage and to said command and address data to send the data encoded power signal to the one or more lighting modules on the two-wire communication network , said data encoded power signal shaped substantially similar to a sinusoidal waveform when said data encoded power signal represents a data bit; and a fixture programming port configured to provide a lighting zone number to said at least one lighting module to program the lighting zone into said at least one lighting module when said at least one lighting module is connected to the fixture programming port.