mhurhangee/ep-ind-claims huggingface dataset:
A cannula (600, 900) for transferring a substance to and/or from a patient, the cannula comprising: a rigid, tubular support sleeve (610, 910) defining a support sleeve lumen extending from a first opening at a proximal end of the support sleeve to a second opening at a distal end of the support sleeve, wherein the support sleeve (610, 910) comprises a rigid, MRI-compatible material; a transfer tube (630, 930) disposed in the support sleeve lumen and extending beyond the distal end of the support sleeve to a distal end of the transfer tube, the transfer tube (630, 930) defining a transfer tube lumen terminating at an opening at the distal end of the transfer tube; and a conformal polymeric sleeve (640, 940) including; a proximal section surrounding at least a portion of the support sleeve (610, 910); and a transitional section (644, 944) connected to the proximal section and surrounding at least a portion of the transfer tube (630, 930); wherein: the transitional section begins at the distal end of the support sleeve (610, 910) and extends from there in a direction toward the distal end of the transfer tube and over the transfer tube (630, 930); and the transitional section (644, 944) tapers inwardly in the direction toward the distal end of the transfer tube (630, 930). a rigid, tubular support sleeve (610, 910) defining a support sleeve lumen extending from a first opening at a proximal end of the support sleeve to a second opening at a distal end of the support sleeve, wherein the support sleeve (610, 910) comprises a rigid, MRI-compatible material; a transfer tube (630, 930) disposed in the support sleeve lumen and extending beyond the distal end of the support sleeve to a distal end of the transfer tube, the transfer tube (630, 930) defining a transfer tube lumen terminating at an opening at the distal end of the transfer tube; and a conformal polymeric sleeve (640, 940) including; a proximal section surrounding at least a portion of the support sleeve (610, 910); and a transitional section (644, 944) connected to the proximal section and surrounding at least a portion of the transfer tube (630, 930); wherein: the transitional section begins at the distal end of the support sleeve (610, 910) and extends from there in a direction toward the distal end of the transfer tube and over the transfer tube (630, 930); and the transitional section (644, 944) tapers inwardly in the direction toward the distal end of the transfer tube (630, 930). the transitional section begins at the distal end of the support sleeve (610, 910) and extends from there in a direction toward the distal end of the transfer tube and over the transfer tube (630, 930); and the transitional section (644, 944) tapers inwardly in the direction toward the distal end of the transfer tube (630, 930).
Drive system comprising a motor having a rotor shaft on which at least two brakes comprising at least one energisable brake coil are arranged, to which brakes current can be applied by an electronic circuit, wherein the power supply has an upper and lower potential, in particular a DC link potential of a converter, wherein an upper and lower potential are provided for feeding a brake coil, wherein a first switch, which can be actuated by a first control circuit, is arranged between the upper potential of the power supply and the upper potential for feeding the brake coil, wherein a second switch, which can be actuated by a second control circuit, is arranged between the lower potential of the power supply and the lower potential for feeding the brake coil, wherein a brake coil of a first brake is arranged between the upper potential for the power supply and the lower potential for feeding the brake coil, wherein a brake coil of a second brake is arranged between the lower potential for the power supply and the upper potential for feeding the brake coil, wherein an alternating functional check can be carried out on the brakes, in particular by determining respective values of a state variable of each brake and supplying them to the respective control circuits and/or by determining values of the angular position of the rotor shaft and supplying them to the respective control circuits, to means for performing comparisons with setpoints or setpoint curves, wherein a third brake coil is arranged between the lower and upper potential for feeding the brake coil, wherein feedback signal lines are led from the switches (S1, S2, S3, S4) to the control circuits actuating the respective switches (S1, S2, S3, S4), in particular such that an alternating functional check can be carried out on the switches.
An implement with a boom, wherein the boom is pivotally mounted about a horizontal axis via a bolt connection on a basic unit of the implement, wherein the mounting of the boom on the basic unit is effected via three bearing plates (13, 14, 15) with corresponding bearing points for the bolt connection, characterized in that the bolt connection is effected via three bolt elements (32, 33, 34), with the middle bolt element being supported on the middle bearing plate.
An apparatus for manufacturing a silicon carbide single crystal by growing the silicon carbide single crystal on a surface of a seed crystal made from a silicon carbide single crystal substrate by supplying a material gas for silicon carbide from below the seed crystal, the apparatus comprising: a base including a mounting portion having a mounting plate on which the seed crystal is mounted, the mounting portion having a first side and a second side opposite to the first side, the seed crystal mounted on the first side of the mounting portion; and a purge gas introduction mechanism for supporting the base and for supplying a purge gas to the base from the second side of the mounting portion, wherein the purge gas introduction mechanism includes a pipe member (11 a) through which the purge gas is supplied to the base, characterized in that the base further includes a coupling portion coupled to the pipe member (11 a), and a holding portion being fixed to the coupling portion and holding the mounting portion through supporting members, the holding portion is located radially around the mounting portion and spaced from the mounting portion by the supporting member to form a purge gas introduction path therebetween for discharging the supplied purge gas from the base toward an outer edge of the seed crystal. a base including a mounting portion having a mounting plate on which the seed crystal is mounted, the mounting portion having a first side and a second side opposite to the first side, the seed crystal mounted on the first side of the mounting portion; and a purge gas introduction mechanism for supporting the base and for supplying a purge gas to the base from the second side of the mounting portion, wherein the purge gas introduction mechanism includes a pipe member (11 a) through which the purge gas is supplied to the base, characterized in that the base further includes a coupling portion coupled to the pipe member (11 a), and a holding portion being fixed to the coupling portion and holding the mounting portion through supporting members, the holding portion is located radially around the mounting portion and spaced from the mounting portion by the supporting member to form a purge gas introduction path therebetween for discharging the supplied purge gas from the base toward an outer edge of the seed crystal.
A method for detecting intrusions in a monitored volume, in which a plurality of N tridimensional sensors respectively monitor at least a part of a monitored volume and respectively communicate with a central processing unit, comprising: - each sensor of said plurality of N tridimensional sensors acquiring a local point cloud in a local coordinate system of said sensor, said local point cloud comprising a set of tridimensional data points of object surfaces in a local volume surrounding said sensor and overlapping the monitored volume, - said central processing unit receiving the acquired local point clouds from the plurality of N tridimensional sensors, storing said acquired point clouds in a memory and, for each sensor of said plurality of N tridimensional sensors, computing updated tridimensional position and orientation of said sensor in a global coordinate system of the monitored volume by aligning a local point cloud acquired by said tridimensional sensor with a global tridimensional map of the monitored volume, which is determined in an automated manner and is stored in a memory, and generating an aligned local point cloud in the global coordinate system from said acquired point cloud on the basis of the updated tridimensional position and orientation of the sensor, - monitoring an intrusion in the monitored volume by comparing a free space of said aligned local point cloud with a free space of the global tridimensional map. - each sensor of said plurality of N tridimensional sensors acquiring a local point cloud in a local coordinate system of said sensor, said local point cloud comprising a set of tridimensional data points of object surfaces in a local volume surrounding said sensor and overlapping the monitored volume, - said central processing unit receiving the acquired local point clouds from the plurality of N tridimensional sensors, storing said acquired point clouds in a memory and, for each sensor of said plurality of N tridimensional sensors, computing updated tridimensional position and orientation of said sensor in a global coordinate system of the monitored volume by aligning a local point cloud acquired by said tridimensional sensor with a global tridimensional map of the monitored volume, which is determined in an automated manner and is stored in a memory, and generating an aligned local point cloud in the global coordinate system from said acquired point cloud on the basis of the updated tridimensional position and orientation of the sensor, - monitoring an intrusion in the monitored volume by comparing a free space of said aligned local point cloud with a free space of the global tridimensional map.
A field effect transistor sensor including: - a substrate, - a source electrode (2, 4) - a drain electrode (3, 4) - a gate electrode (5, 6; G1, G2, G3; G2, G3, G4, G5, G6, G7, G8) functionalized with a layer of biological recognition elements, - a source-drain channel - a semiconductor layer the field effect transistor sensor being characterized in that the layer of biological recognition elements is patterned into a plurality of uncoupled domains, each domain being: - physically separated from other domains, or - connected through a material that decouples adjacent domains both electrostatically and mechanically. - a substrate, - a source electrode (2, 4) - a drain electrode (3, 4) - a gate electrode (5, 6; G1, G2, G3; G2, G3, G4, G5, G6, G7, G8) functionalized with a layer of biological recognition elements, - a source-drain channel - a semiconductor layer - physically separated from other domains, or - connected through a material that decouples adjacent domains both electrostatically and mechanically.
A trap comprising: (a) a housing comprising a base and walls (110, 120, 130, 140, 150, 160) with a back wall and a front cover and at least one opening, the walls (110, 120, 130, 140, 150, 160) defining an interior space; (b) a light source comprising a directional light source mounted in the interior space, wherein the light source comprises an LED light, and wherein the light source is configured to direct, in operation, a majority of light emitted from the light source at one or more surfaces in the interior space and to allow a portion of the light to escape from the enclosure through the one or more openings in the housing; (c) a suppression element mounted in the interior space and constructed to immobilize, kill, or contain arthropods, characterized in that the front cover is pivotably connected by hinges to the base and configured to pivot into an open position to access the interior of the housing, and wherein a baffle is positioned adjacent to the at least one opening. (a) a housing comprising a base and walls (110, 120, 130, 140, 150, 160) with a back wall and a front cover and at least one opening, the walls (110, 120, 130, 140, 150, 160) defining an interior space; (b) a light source comprising a directional light source mounted in the interior space, wherein the light source comprises an LED light, and wherein the light source is configured to direct, in operation, a majority of light emitted from the light source at one or more surfaces in the interior space and to allow a portion of the light to escape from the enclosure through the one or more openings in the housing; (c) a suppression element mounted in the interior space and constructed to immobilize, kill, or contain arthropods,
Arrangement for touch-safe contacting of a busbar system with multiple busbars, wherein the arrangement has a touch protection housing made of electrically insulating material with receptacles for busbars, which has a base (10, 11) having the receptacles and a cover, which closes the receptacles and is optionally detachable from the base (10, 11), the cover having an installation side, wherein the arrangement has a multipole busbar adapter for the electrical contacting of the busbars, which is installed with an adapter housing on the installation side and for this purpose passes through the cover with at least one contact element in each case for each busbar to be electrically contacted, characterized in that the busbar adapter passes through the cover with retaining feet, which are configured to engage behind the busbars, for which purpose the cover has a planar cover plate with a number of rows of regularly spaced-apart passage slots corresponding to the number of busbars to be contacted, wherein the retaining feet are formed as blades, with which they pass through the passage slots in the cover.
A method of making an integrated device having upper and lower planar components (13, 15) forming part of a stack bonded onto a metallic support frame and bonded together by an adhesive layer of well-defined thickness, comprising providing a trench within a peripheral recess formed within a marginal portion of the support frame for said stack, wherein the trench is milled into the support frame; applying an excess amount of adhesive to one of said planar components (13, 15); bringing said upper and lower planar components (13, 15) into proximity such that said adhesive layer of well-defined thickness is formed between said upper and lower planar components (13, 15); and collecting surplus adhesive in said trench. providing a trench within a peripheral recess formed within a marginal portion of the support frame for said stack, wherein the trench is milled into the support frame; applying an excess amount of adhesive to one of said planar components (13, 15); bringing said upper and lower planar components (13, 15) into proximity such that said adhesive layer of well-defined thickness is formed between said upper and lower planar components (13, 15); and collecting surplus adhesive in said trench.
A circuit substrate comprising: a ceramic substrate including a first surface and a second surface; a first metal plate bonded to the first surface via a first bonding layer; and a second metal plate bonded to the second surface via a second bonding layer, wherein the first bonding layer has a first portion protruding from between the first surface and the first metal plate and extending onto the first surface, wherein the second bonding layer has a second portion protruding from between the second surface and the second metal plate and extending onto the second surface, wherein at least one of the first bonding layer or the second bonding layer contains Ag, Cu and Ti, wherein a three-point bending strength of the ceramic substrate is 500 MPa or more, and wherein at least one of a ratio L1/H1 of a length L1 (μm) of the first portion to a thickness H1 (μm) thereof or a ratio L2/H2 of a length L2 (μm) of the second portion to a thickness H2 (μm) thereof is 0.5 or more and 3.0 or less, characterized in that at least one of an average value of first Vickers hardnesses of 10 places of the first portion or an average value of second Vickers hardnesses of 10 places of the second portion is 883 MPa (90 kgf/mm 2) or more and 2256 MPa (230 kgf/mm 2) or less. a ceramic substrate including a first surface and a second surface; a first metal plate bonded to the first surface via a first bonding layer; and a second metal plate bonded to the second surface via a second bonding layer, wherein the first bonding layer has a first portion protruding from between the first surface and the first metal plate and extending onto the first surface, wherein the second bonding layer has a second portion protruding from between the second surface and the second metal plate and extending onto the second surface, wherein at least one of the first bonding layer or the second bonding layer contains Ag, Cu and Ti, wherein a three-point bending strength of the ceramic substrate is 500 MPa or more, and wherein at least one of a ratio L1/H1 of a length L1 (μm) of the first portion to a thickness H1 (μm) thereof or a ratio L2/H2 of a length L2 (μm) of the second portion to a thickness H2 (μm) thereof is 0.5 or more and 3.0 or less, characterized in that at least one of an average value of first Vickers hardnesses of 10 places of the first portion or an average value of second Vickers hardnesses of 10 places of the second portion is 883 MPa (90 kgf/mm 2) or more and 2256 MPa (230 kgf/mm 2) or less.
A compound for use in inhibiting tumor growth or producing tumor regression in a subject having ovarian cancer or tumor selected from the group consisting of epithelial ovarian cancer, stromal ovarian cancer and ovarian sarcoma cancer, wherein said compound is RAD1901 having the structure: or a salt or solvate thereof.
Method for the regeneration of an exhaust gas after-treatment system for predominantly lean-operated, gasoline combustion engines having one or more nitrogen oxide storage catalysts arranged near the engine and one or more nitrogen oxide storage catalysts located in the underbody of the vehicle, characterized in that, during the regeneration of the nitrogen oxide storage catalysts arranged near the engine, a complete emptying of these nitrogen oxide storage catalysts is not effected if the nitrogen oxide storage catalysts located in the underbody are within a temperature range in which ammonia is oxidized to form nitrous oxide.
A display device comprising: a phase modulating image producing panel controllable to produce the image via as an array of tiled holograms; a holographic optical element configured to receive collimated light from a light source and to output converging light toward the phase modulating image producing panel, and an eye-tracking system configured to track the gaze direction of the user of the display device; wherein the phase modulating image producing panel being configured to diffract a portion of the converging light output by the holographic optical elements, to produce an image with the portion of the converging light diffracted and change the portion of the converging light to collimated or diverging light such that zero-order undiffracted light reflected by the phase modulating image producing panel remains converging; wherein the phase modulating image producing panel is further controllable to modify a resolution of each of a plurality of portions of the image based on a gaze direction of a user; and wherein each of the tiled holograms is individually-addressable, and wherein decreasing the image resolution of the region of lower resolution tiled holograms comprises sending a larger number of replicated copies of smaller tiled holograms in the region of lower resolution holograms. a phase modulating image producing panel controllable to produce the image via as an array of tiled holograms; a holographic optical element configured to receive collimated light from a light source and to output converging light toward the phase modulating image producing panel, and an eye-tracking system configured to track the gaze direction of the user of the display device; wherein the phase modulating image producing panel being configured to diffract a portion of the converging light output by the holographic optical elements, to produce an image with the portion of the converging light diffracted and change the portion of the converging light to collimated or diverging light such that zero-order undiffracted light reflected by the phase modulating image producing panel remains converging; wherein the phase modulating image producing panel is further controllable to modify a resolution of each of a plurality of portions of the image based on a gaze direction of a user; and wherein each of the tiled holograms is individually-addressable, and wherein decreasing the image resolution of the region of lower resolution tiled holograms comprises sending a larger number of replicated copies of smaller tiled holograms in the region of lower resolution holograms.
Venetian blind consisting of a plurality of slats each having a reflective upper surface, said slats (10 to 14) being pivotably orientable between a position in which the normal to the reflective surface is oriented vertically upwards, and positions in which said normal to the reflective surface is oriented inwards, characterized in that each of said slats (10 to 14) is extended at its outer edge by a downwardly extending strip (30 to 33), said strip (30 to 33) having a width at least equal to the height separating two consecutive slats, the lower edge of each of said strips (30 to 33) being rigid and connected to an inner vertical connecting means.
A waterslide feature comprising: a channel (35, 192) comprising a sliding surface (34, 82, 84, 192) and walls; a plurality of nozzles angled to spray water over the sliding surface (34, 82, 84, 192), the nozzles are positioned to provide a flow of water to impact a vehicle sliding on the sliding surface (34, 82, 84, 192); characterized in that the walls defining a plurality of recesses along the interior of the walls; wherein the plurality of nozzles comprising a nozzle extending through each of the recesses; and wherein the nozzles are sized to provide a flow of water sufficient in use to affect motion of the vehicle. a channel (35, 192) comprising a sliding surface (34, 82, 84, 192) and walls; a plurality of nozzles angled to spray water over the sliding surface (34, 82, 84, 192), the nozzles are positioned to provide a flow of water to impact a vehicle sliding on the sliding surface (34, 82, 84, 192); characterized in that the walls defining a plurality of recesses along the interior of the walls; wherein the plurality of nozzles comprising a nozzle extending through each of the recesses; and wherein the nozzles are sized to provide a flow of water sufficient in use to affect motion of the vehicle.
A paper machine belt for advancing a wet fibrous paper web between a press (14, 19) and a heated drying cylinder of a paper machine, wherein the belt has a web-contacting surface and is adapted to pass with the fibrous web through the press (14, 19) and then carry the fibrous web to the drying cylinder, said web-contacting surface defining a multitude of regularly distributed depressions and surface portions located between said depressions, so that the belt is a texturing belt, forming on the fibrous web an equivalent textured pattern, said texturing belt or a layer of the texturing belt intended for contact with the paper web being reversibly compressible so that the texturing belt is compressed in a transfer nip at the drying cylinder and resumes its uncompressed state when leaving said transfer nip, characterized in that said belt is substantially impermeable, wherein the air permeability of the belt is less than 6m 3 /m 2 x min, measured in accordance with the procedure described in "Standard Test Method for Air Permeability of Textile Fabrics, ASTM D737-75, American Society of Testing and Materials"