mhurhangee/ep-ind-claims huggingface dataset:
The curtain wall comprising mullion profiles, transom profiles and one or more panels, wherein the mullion profiles extend vertically, wherein the transom profiles each are attached to two mullion profiles and extend horizontally, wherein the mullion profiles are provided with a groove (9, 10) on each side for receiving the side edge of a panel, wherein the grooves (9,10) have an access opening, wherein the access opening has a first fixed dimension or width in a horizontal direction, wherein the transom profiles have a second dimension in a horizontal direction and at right angles to the profile direction of the transom profiles, wherein the second dimension is larger than the first dimension, wherein the transom profiles have a third dimension in a non-horizontal direction at right angles to the profile direction, wherein the third dimension is smaller than the first dimension, characterized in that the transom profiles are provided with an undercut groove extending in the profile direction and a rod inserted in the undercut groove, wherein the mullion profiles are provided with a second groove for receiving an end of said rod projecting beyond the undercut groove, thereby blocking a rotational movement of the transom profiles.
A method performed at a source master eNodeB, MeNB, for handing over a user equipment, UE, to a target MeNB without secondary eNB, SeNB, change, in a wireless communication system with dual connectivity, DC, the method comprising: transmitting a handover request message to a target MeNB, wherein the handover request message includes a SeNB identifier, ID; receiving a handover request acknowledge message from the target MeNB as a response to the handover request message, wherein the handover request acknowledge message includes first information informing that SeNB bearers are kept for the UE; and transmitting a SeNB release request message to the SeNB, wherein the SeNB release request message includes second information informing that the SeNB bearers are kept for the UE, wherein the UE is currently connected to both the source MeNB and the SeNB in the DC, and wherein the UE is to be handed over to the target MeNB without change of the SeNB. transmitting a handover request message to a target MeNB, wherein the handover request message includes a SeNB identifier, ID; receiving a handover request acknowledge message from the target MeNB as a response to the handover request message, wherein the handover request acknowledge message includes first information informing that SeNB bearers are kept for the UE; and transmitting a SeNB release request message to the SeNB, wherein the SeNB release request message includes second information informing that the SeNB bearers are kept for the UE, wherein the UE is currently connected to both the source MeNB and the SeNB in the DC, and wherein the UE is to be handed over to the target MeNB without change of the SeNB.
A method of constructing a medical device, comprising: providing a can that houses medical circuitry, at least an edge of the can being metallic; providing electrical connectors within the can and electrically connected to the medical circuitry; providing a connector enclosure that encloses lead connectors, the connector enclosure having a base and at least one wall that are metallic, the base and the at least one wall being welded together and_defining a cavity, the connector enclosure including an opening to the cavity; providing lead connectors within the cavity and in alignment with the opening; providing electrical conductors that are electrically connected to the lead connectors within the cavity and that are electrically isolated from the metallic base and wall while being exposed outside of the base of the connector enclosure; placing the metallic edge of the can in contact with a metallic edge of the metallic base such that the electrical connectors within the can and the electrical conductors exposed outside the metallic base are in contact and are contained by a housing created by the contact of the can and the metallic base of the connector enclosure; and creating a metallic weld between the contact of the metallic edge of the can and the metallic base of the connector enclosure. providing a can that houses medical circuitry, at least an edge of the can being metallic; providing electrical connectors within the can and electrically connected to the medical circuitry; providing a connector enclosure that encloses lead connectors, the connector enclosure having a base and at least one wall that are metallic, the base and the at least one wall being welded together and_defining a cavity, the connector enclosure including an opening to the cavity; providing lead connectors within the cavity and in alignment with the opening; providing electrical conductors that are electrically connected to the lead connectors within the cavity and that are electrically isolated from the metallic base and wall while being exposed outside of the base of the connector enclosure; placing the metallic edge of the can in contact with a metallic edge of the metallic base such that the electrical connectors within the can and the electrical conductors exposed outside the metallic base are in contact and are contained by a housing created by the contact of the can and the metallic base of the connector enclosure; and creating a metallic weld between the contact of the metallic edge of the can and the metallic base of the connector enclosure.
A rectenna device for converting incident light to electrical energy, comprising: - a substrate; - a first metallic layer deposited on top of said substrate, said first metallic layer having a predefined thickness; - a rectifying element deposited on top of said first metallic layer; - a second metallic layer deposited on top of said rectifying element and configured to collect electromagnetic waves of the incident light and to couple it into plasmonic waves within the rectenna device, the second metallic layer comprising an array of a plurality of metallic patches spaced from each other according to a predefined spacing, each metallic patch having predefined dimensions, wherein the rectifying element is configured to rectify the plasmonic waves to produce a direct current, the plasmonic waves being generated at one or more operating wavelengths, and at least one dimensioning parameter of the rectenna device is determined from at least one operating wavelength, said at least one dimensioning parameter being chosen in a group comprising the dimensions of said plurality of metallic patches, the spacing of the metallic patches in said array, and the predefined thickness of the first metallic layer. - a substrate; - a first metallic layer deposited on top of said substrate, said first metallic layer having a predefined thickness; - a rectifying element deposited on top of said first metallic layer; - a second metallic layer deposited on top of said rectifying element and configured to collect electromagnetic waves of the incident light and to couple it into plasmonic waves within the rectenna device, the second metallic layer comprising an array of a plurality of metallic patches spaced from each other according to a predefined spacing, each metallic patch having predefined dimensions,
An orthodontic appliance comprising: a base having an outer surface adapted for bonding to a tooth; a body extending outwardly from the base in a direction away from the outer surface of the base and having an elongated archwire slot therein extending along a generally mesial-distal direction, the archwire slot having a bottom wall and a pair of sidewalls, the body further including an undercut (132, 133) on either an occlusal or gingival side of the body; a hinge coupled to the body and having a hinge axis extending along a generally mesial-distal direction; and a door assembly pivotable along the hinge axis between an open position allowing access to the archwire slot and a closed position obstructing access to the archwire slot, the door assembly comprising: a ceramic ligating cover; and a resilient clip coupled to both of the ligating cover and the hinge, the ligating cover substantially obscuring the clip when the door assembly is in its closed position, the clip including a hook portion retained by an interference fit with the undercut (132, 133) when the door assembly is in its closed position, and wherein the clip comprises a shaft portion and the hook portion joined at one end of the shaft portion, thereby providing a generally "J"-shaped configuration. a base having an outer surface adapted for bonding to a tooth; a body extending outwardly from the base in a direction away from the outer surface of the base and having an elongated archwire slot therein extending along a generally mesial-distal direction, the archwire slot having a bottom wall and a pair of sidewalls, the body further including an undercut (132, 133) on either an occlusal or gingival side of the body; a hinge coupled to the body and having a hinge axis extending along a generally mesial-distal direction; and a door assembly pivotable along the hinge axis between an open position allowing access to the archwire slot and a closed position obstructing access to the archwire slot, the door assembly comprising: a ceramic ligating cover; and a resilient clip coupled to both of the ligating cover and the hinge, the ligating cover substantially obscuring the clip when the door assembly is in its closed position, the clip including a hook portion retained by an interference fit with the undercut (132, 133) when the door assembly is in its closed position, and wherein the clip comprises a shaft portion and the hook portion joined at one end of the shaft portion, thereby providing a generally "J"-shaped configuration. a ceramic ligating cover; and a resilient clip coupled to both of the ligating cover and the hinge, the ligating cover substantially obscuring the clip when the door assembly is in its closed position, the clip including a hook portion retained by an interference fit with the undercut (132, 133) when the door assembly is in its closed position, and wherein the clip comprises a shaft portion and the hook portion joined at one end of the shaft portion, thereby providing a generally "J"-shaped configuration.
A method of visual localisation, comprising: recording localised reference images of an environment along a mapping trajectory; identifying planes in the environment; generating a plurality of new views, wherein each of the new views is associated with a location and orientation, comprising: using the planes to represent portions or regions of the environment; and using the planes in computing the new views from the reference images, wherein a viewpoint change from a first camera view corresponding to a reference view to a second camera view corresponding to a new view is simulated by applying a projective transformation to a reference image of the first camera, wherein the projective transformation is a function of pose and calibration of the first and second cameras and plane position in space and the projection of a plane from the reference view to the new view is represented by a homography; obtaining at least one query image; and determining the location where the query image was obtained on the basis of a comparison of the query image with said new views. recording localised reference images of an environment along a mapping trajectory; identifying planes in the environment; generating a plurality of new views, wherein each of the new views is associated with a location and orientation, comprising: using the planes to represent portions or regions of the environment; and using the planes in computing the new views from the reference images, using the planes to represent portions or regions of the environment; and using the planes in computing the new views from the reference images, wherein a viewpoint change from a first camera view corresponding to a reference view to a second camera view corresponding to a new view is simulated by applying a projective transformation to a reference image of the first camera, wherein the projective transformation is a function of pose and calibration of the first and second cameras and plane position in space and the projection of a plane from the reference view to the new view is represented by a homography; obtaining at least one query image; and determining the location where the query image was obtained on the basis of a comparison of the query image with said new views.
An imaging device (100; 200; 400) for use in imaging a severe occlusion of a vessel of a patient, the device comprising: a flexible elongate body (102; 202; 402) having a proximal portion (104; 204) and a distal portion (106; 206; 300), the distal portion defining a distal tip having a tapered portion that tapers to a smaller diameter as the distal tip extends distally along a longitudinal axis of the flexible elongate body, wherein the tapered portion of the distal tip has a length less than 5 mm as measured along the longitudinal axis of the flexible elongate body, and wherein at least the distal portion of the flexible elongate body includes a lumen extending along its length to define an opening at a distal end of the distal tip; and an ultrasound transducer array of ultrasound transducers secured to the distal portion of the flexible elongate body proximal of the tapered portion of the distal tip such that the ultrasound transducer array is spaced from the distal end of the distal tip by a distance of 5 mm or less; and wherein each of the ultrasound transducers is configured for both side-looking imaging and forward-looking imaging. a flexible elongate body (102; 202; 402) having a proximal portion (104; 204) and a distal portion (106; 206; 300), the distal portion defining a distal tip having a tapered portion that tapers to a smaller diameter as the distal tip extends distally along a longitudinal axis of the flexible elongate body, wherein the tapered portion of the distal tip has a length less than 5 mm as measured along the longitudinal axis of the flexible elongate body, and wherein at least the distal portion of the flexible elongate body includes a lumen extending along its length to define an opening at a distal end of the distal tip; and an ultrasound transducer array of ultrasound transducers secured to the distal portion of the flexible elongate body proximal of the tapered portion of the distal tip such that the ultrasound transducer array is spaced from the distal end of the distal tip by a distance of 5 mm or less; and wherein each of the ultrasound transducers is configured for both side-looking imaging and forward-looking imaging.
A method for selecting a power saving mode of a wireless device, comprising: monitoring data traffic in the network; determining, during periods of low overall data traffic, if a particular type of date. traffic is observed during a predetermined duration; and characterized by deciding whether to trigger entry of a first low power state or a second low power state based on the determination. monitoring data traffic in the network; determining, during periods of low overall data traffic, if a particular type of date. traffic is observed during a predetermined duration; and characterized by deciding whether to trigger entry of a first low power state or a second low power state based on the determination.
A cell comprising: a strained continuous oxide definition, OD, region defined in a substrate; a gate for a transistor between a first dummy gate and a second dummy gate, wherein a source for the transistor is defined in a first portion of the strained continuous OD region between the gate and the first dummy gate, and wherein a drain for the transistor is defined in a second portion of the strained continuous OD region between the gate and a first side of the second dummy gate; a first gate-directed local interconnect coupled to a third portion of the strained continuous OD region adjacent a second opposing side of the second dummy gate; a first diffusion-directed local interconnect configured to couple the first gate-directed local interconnect to the second dummy gate; and a first via configured to couple the first diffusion-directed local interconnect to a source voltage interconnect in a metal layer adjacent the substrate. a strained continuous oxide definition, OD, region defined in a substrate; a gate for a transistor between a first dummy gate and a second dummy gate, wherein a source for the transistor is defined in a first portion of the strained continuous OD region between the gate and the first dummy gate, and wherein a drain for the transistor is defined in a second portion of the strained continuous OD region between the gate and a first side of the second dummy gate; a first gate-directed local interconnect coupled to a third portion of the strained continuous OD region adjacent a second opposing side of the second dummy gate; a first diffusion-directed local interconnect configured to couple the first gate-directed local interconnect to the second dummy gate; and a first via configured to couple the first diffusion-directed local interconnect to a source voltage interconnect in a metal layer adjacent the substrate.
A flow path component assembly, comprising: a carrier having at least one radially extending tab (114; 116); a blade outer air seal having a base portion and a first wall extending radially from the base portion, the first wall having an aperture; and a pin extending through a hole (113; 118) in the radially extending tab (114; 116) and the aperture, characterised in that the pin has an ellipsoid portion between a first end and a second end. a carrier having at least one radially extending tab (114; 116); a blade outer air seal having a base portion and a first wall extending radially from the base portion, the first wall having an aperture; and a pin extending through a hole (113; 118) in the radially extending tab (114; 116) and the aperture, characterised in that the pin has an ellipsoid portion between a first end and a second end.
A control information transmission method, wherein the method is performed by a terminal device, the method comprising: receiving second control information from a network device, wherein the second control information indicates to monitor an uplink preemption indication, PI, the uplink PI indicates a third time-frequency resource in a reference uplink resource, RUR, wherein the RUR is an uplink time-frequency resource that may be preempted and a time domain range of the RUR is from an n th time domain symbol to an m th time domain symbol after an occasion for monitoring the uplink PI, wherein n and m are positive integers, n is less than or equal to m, the time domain symbol is used for uplink data transmission, and the third time-frequency resource is a time-frequency resource in which the uplink data transmission is stopped; monitoring the uplink PI based on the second control information; wherein the method further comprises: receiving fourth control information from the network device indicating the occasion for monitoring the uplink PI, wherein the fourth control information indicates time domain symbols on which the uplink PI needs to be monitored in one slot by using a bitmap, or further indicates an index or a number of a configuration of the monitoring occasion; and determining the monitoring occasion of the uplink PI based on the fourth control information. receiving second control information from a network device, wherein the second control information indicates to monitor an uplink preemption indication, PI, the uplink PI indicates a third time-frequency resource in a reference uplink resource, RUR, wherein the RUR is an uplink time-frequency resource that may be preempted and a time domain range of the RUR is from an n th time domain symbol to an m th time domain symbol after an occasion for monitoring the uplink PI, wherein n and m are positive integers, n is less than or equal to m, the time domain symbol is used for uplink data transmission, and the third time-frequency resource is a time-frequency resource in which the uplink data transmission is stopped; monitoring the uplink PI based on the second control information; wherein the method further comprises: receiving fourth control information from the network device indicating the occasion for monitoring the uplink PI, wherein the fourth control information indicates time domain symbols on which the uplink PI needs to be monitored in one slot by using a bitmap, or further indicates an index or a number of a configuration of the monitoring occasion; and determining the monitoring occasion of the uplink PI based on the fourth control information. receiving fourth control information from the network device indicating the occasion for monitoring the uplink PI, wherein the fourth control information indicates time domain symbols on which the uplink PI needs to be monitored in one slot by using a bitmap, or further indicates an index or a number of a configuration of the monitoring occasion; and determining the monitoring occasion of the uplink PI based on the fourth control information.
Method for producing a moulded polymer part (1, 100) reinforced with endless fibres (4, 40), in which method the endless fibres (4, 40) being impregnated with at least one polymer which is at least partially plasticized and is converted to a molten state are disposed by means of a handling installation on an auxiliary mould (8, 80) in such a manner that the two-dimensional and/or three-dimensional orientation of the endless fibres (4, 40) substantially corresponds to the orientation of the endless fibres (4, 40) that is provided in the moulded polymer part (1, 100), wherein the oriented endless fibres (4, 40) by means of the auxiliary mould (8, 80) subsequently are transferred to at least one two-part open moulding tool and are deposited there, upon which the moulding tool is closed and the impregnated oriented endless fibres (4, 40) are compressed solely or with the addition of at least one further plasticizeable polymer which forms at least part of the polymer matrix of the moulded polymer part (1, 100) to be produced and is convertible to a molten state, while forming the endless-fibre reinforced moulded polymer part (1, 100), wherein the moulded polymer part (1, 100) is subsequently cooled and removed from the moulding tool, characterized in that the endless fibres (4, 40) are wound onto mandrels (16, 160) of the auxiliary mould (8, 80), in that at least some (16b, 16c) of the mandrels (16a, 16b, 16c) are mutually dislocated according to the respectively desired orientation of the endless fibres, and in that the oriented endless fibres (4, 40) which are wound onto the mandrels (16, 160) of the auxiliary mould (8, 80) subsequently by doffing from the mandrels (16, 160) are transferred into the open moulding tool.