mhurhangee/ep-ind-claims huggingface dataset:
A wireless network method comprising: by operation of a modem of a first wireless network device, communicating wireless network traffic on a first subset of wireless communication channels in a wireless communication network; by operation of the modem of the first wireless network device, receiving motion detection signals transmitted through a space by a second wireless network device, the motion detection signals received on a second subset of wireless communication channels, the motion detection signals transmitted by the second wireless network device each comprising control data and a motion probe, each motion probe comprising a reference signal or a beacon signal; communicating the wireless network traffic and receiving the motion detection signals in parallel; and by operation of the modem of the first wireless network device, detecting motion of an object in the space by analyzing the motion probes for changes from the respective motion detection signals. by operation of a modem of a first wireless network device, communicating wireless network traffic on a first subset of wireless communication channels in a wireless communication network; by operation of the modem of the first wireless network device, receiving motion detection signals transmitted through a space by a second wireless network device, the motion detection signals received on a second subset of wireless communication channels, the motion detection signals transmitted by the second wireless network device each comprising control data and a motion probe, each motion probe comprising a reference signal or a beacon signal; communicating the wireless network traffic and receiving the motion detection signals in parallel; and by operation of the modem of the first wireless network device, detecting motion of an object in the space by analyzing the motion probes for changes from the respective motion detection signals.
A crane provided with a boom, a wire rope, a winch, and a hook, the boom being capable of being luffed up and down, extended, and retracted, the wire rope being configured to hang from the boom, the winch being configured to wind or unwind the wire rope, the hook being configured to be raised or lowered by the wire rope wound or unwound, whereby the crane comprises: a winding manipulation tool that allows giving an instruction on an operating state of the winch; and switch that allows instructing that a suspension length of the hook be kept, wherein, when the winding manipulation tool is manipulated in one direction while the switch is in an "ON" state, the boom is luffed up and extended to raise the hook while the wire rope is unwound such that the suspension length of the hook is kept, and, when the winding manipulation tool is manipulated in an other direction while the switch is in the "ON" state, the boom is luffed down and retracted to lower the hook while the wire rope is wound such that the suspension length of the hook is kept. a winding manipulation tool that allows giving an instruction on an operating state of the winch; and switch that allows instructing that a suspension length of the hook be kept, wherein, when the winding manipulation tool is manipulated in one direction while the switch is in an "ON" state, the boom is luffed up and extended to raise the hook while the wire rope is unwound such that the suspension length of the hook is kept, and, when the winding manipulation tool is manipulated in an other direction while the switch is in the "ON" state, the boom is luffed down and retracted to lower the hook while the wire rope is wound such that the suspension length of the hook is kept.
An abutment screw for fastening an abutment attachment provided with an introduction channel onto an oral implant: - comprising a threaded shank for screwing the abutment screw into the oral implant, wherein the threaded shank comprises a conically tapering section for exerting a force on the abutment attachment to produce a positive-locking and large-area connection to a conical section in the interior of the introduction channel of the abutment attachment to increase the stability of the abutment attachment; - comprising a circumferential, concave recess section, which forms an annular groove encircling the threaded shank, and - comprising a screw head which has a hexagonal ball head for inserting into a recess of a turning tool and for transferring a torque, exerted through the recess, to the threaded shank. - comprising a threaded shank for screwing the abutment screw into the oral implant, wherein the threaded shank comprises a conically tapering section for exerting a force on the abutment attachment to produce a positive-locking and large-area connection to a conical section in the interior of the introduction channel of the abutment attachment to increase the stability of the abutment attachment; - comprising a circumferential, concave recess section, which forms an annular groove encircling the threaded shank, and - comprising a screw head which has a hexagonal ball head for inserting into a recess of a turning tool and for transferring a torque, exerted through the recess, to the threaded shank.
An implantable medical device having a surface and a matrix coating applied to said surface of said implantable medical device, said matrix coating consisting of components having a molecular weight of less than 20 kDa, said matrix coating comprising (i) an oligomer having a structure described by formula: F T - [B - (oligo)] n - B - (F T) g wherein B comprises a urethane; oligo comprises polypropylene oxide, polyethylene oxide, polycarbonate, or polytetramethyleneoxide; F T is an oligofluoro group; g is 1; and n is an integer from 1 to 10; and (ii) a biologically active agent, wherein (a) said matrix coating is self-eliminating or bioerodible upon implantation into a subject, (b) said biologically active agent, when on the implantable medical device, resides solely within said matrix coating; (c) said matrix coating does not have the properties of a base polymer; (d) said matrix coating is applied to said surface by spray coating, printing, or dip coating said implantable medical device; and (e) said matrix coating thickness is from 0.05 to 15 microns. (i) an oligomer having a structure described by formula: F T - [B - (oligo)] n - B - (F T) g wherein B comprises a urethane; oligo comprises polypropylene oxide, polyethylene oxide, polycarbonate, or polytetramethyleneoxide; F T is an oligofluoro group; g is 1; and n is an integer from 1 to 10; and B comprises a urethane; oligo comprises polypropylene oxide, polyethylene oxide, polycarbonate, or polytetramethyleneoxide; F T is an oligofluoro group; g is 1; and n is an integer from 1 to 10; (ii) a biologically active agent, wherein (a) said matrix coating is self-eliminating or bioerodible upon implantation into a subject, (b) said biologically active agent, when on the implantable medical device, resides solely within said matrix coating; (c) said matrix coating does not have the properties of a base polymer; (d) said matrix coating is applied to said surface by spray coating, printing, or dip coating said implantable medical device; and (e) said matrix coating thickness is from 0.05 to 15 microns. (a) said matrix coating is self-eliminating or bioerodible upon implantation into a subject, (b) said biologically active agent, when on the implantable medical device, resides solely within said matrix coating; (c) said matrix coating does not have the properties of a base polymer; (d) said matrix coating is applied to said surface by spray coating, printing, or dip coating said implantable medical device; and (e) said matrix coating thickness is from 0.05 to 15 microns.
A data processing method, comprising: determining a packet loss scenario type corresponding to a first data packet when detecting that the first data packet is lost; generating a second data packet based on a data packet adjacent to the first data packet if the packet loss scenario type meets a data packet compensation condition; and adding the second data packet to a corresponding target location at which the first data packet is located before the first data packet is lost, wherein the determining a packet loss scenario type corresponding to a first data packet when detecting that the first data packet is lost comprises: when detecting that the first data packet is lost, determining, based on an associated data packet corresponding to the first data packet, the packet loss scenario type corresponding to the first data packet, wherein the associated data packet is M adjacent data packets previous to the first data packet, the associated data packet is N adjacent data packets following the first data packet, or the associated data packet is M adjacent data packets previous to the first data packet and N adjacent data packets following the first data packet, wherein M is an integer greater than or equal to 1, and N is an integer greater than or equal to 1. determining a packet loss scenario type corresponding to a first data packet when detecting that the first data packet is lost; generating a second data packet based on a data packet adjacent to the first data packet if the packet loss scenario type meets a data packet compensation condition; and adding the second data packet to a corresponding target location at which the first data packet is located before the first data packet is lost, wherein the determining a packet loss scenario type corresponding to a first data packet when detecting that the first data packet is lost comprises: when detecting that the first data packet is lost, determining, based on an associated data packet corresponding to the first data packet, the packet loss scenario type corresponding to the first data packet, wherein the associated data packet is M adjacent data packets previous to the first data packet, the associated data packet is N adjacent data packets following the first data packet, or the associated data packet is M adjacent data packets previous to the first data packet and N adjacent data packets following the first data packet, wherein M is an integer greater than or equal to 1, and N is an integer greater than or equal to 1.
A gas turbine engine comprising a plurality of can combustors positioned in a circumferential array; a turbine positioned downstream of the plurality of can combustors; and a mixing joint (150,200,250) for adjacent can combustors (120,130) positioned between each part of the plurality of can combustors, the joint comprising: a first can combustor with a first combustion flow and a first wall; a second can combustor with a second combustion flow and a second wall, wherein the first can combustor and the second can combustor meet at the joint between the first wall and the second wall; characterized in that, a flow disruption surface positioned between the first wall and the second wall configured to promote mixing of the first combustion flow and the second combustion flow downstream of the first wall and the second wall, wherein the flow disruption surface comprises a first set of chevron like spikes defined by a downstream edge of the first wall and a mating second set of chevron like spikes defined by a downstream edge of the second wall. a first can combustor with a first combustion flow and a first wall; a second can combustor with a second combustion flow and a second wall, wherein the first can combustor and the second can combustor meet at the joint between the first wall and the second wall; characterized in that, a flow disruption surface positioned between the first wall and the second wall configured to promote mixing of the first combustion flow and the second combustion flow downstream of the first wall and the second wall, wherein the flow disruption surface comprises a first set of chevron like spikes defined by a downstream edge of the first wall and a mating second set of chevron like spikes defined by a downstream edge of the second wall.
Device for connecting a composite pipe with a metallic layer to a connecting nipple of a press fitting, with a composite pipe, with a profiled connecting nipple which receives at least one sealing ring in a sealing ring groove of the connecting nipple, wherein the connecting nipple has a profiled cylindrical base body, and wherein, viewed in the axial direction of the connecting nipple, on both sides of the sealing ring groove with the sealing ring a cylindrical jacket section of the base body adjoins, which is bounded on at least one side facing away from the sealing ring groove by a pipe receiving groove and wherein the web width (s) of the cylindrical jacket section is greater than or equal to the sealing ring groove width (b), characterized, in that the composite pipe is a multilayer composite pipe with a metallic inner layer and an outer layer of plastic and in that the pipe receiving groove is circular in longitudinal section.
The compound 5-(3-chloro-4-fluorophenyl)-7-cyclopropyl-3-(2-(3-fluoro-3-methylazetidin-1-yl)-2-oxoethyl)-3,7-dihydro-4H-pyrrolo[2,3-d]pyrimidin-4-one of the formula: or a pharmaceutically acceptable salt thereof.
A system, comprising: an x-ray emitter configured to emit X-ray beams and having a field of view; an optical camera having a field of view that at least partially overlaps the field of view of the x-ray emitter, wherein the optical camera is configured to capture a patient image, wherein the patient image depicts a patient body part; a monitor adapted to display an image of the patient's body part that is within the optical camera's field of view; and characterised by comprising a processor in communication with the optical camera and the monitor, the processor having a memory within which a plurality of reference images are stored, each reference image depicting an exemplary body part, wherein the processor is configured to compare the position of the patient body part depicted in the patient image to the position of the exemplary body part depicted within the selected reference image, wherein the processor is configured to provide a positive or negative notification based on the comparison, wherein the positive or negative notification is provided using a visual aid, wherein the processor is configured to scale the size of the exemplary body part depicted within the reference image to compare the position of the patient body part to the position of the exemplary body part, wherein the positive or negative notification is provided using a visual aid in conjunction with the displayed image of the patient's body part, and further wherein the patient image and reference image are shown side-by-side on the monitor. an x-ray emitter configured to emit X-ray beams and having a field of view; an optical camera having a field of view that at least partially overlaps the field of view of the x-ray emitter, wherein the optical camera is configured to capture a patient image, wherein the patient image depicts a patient body part; a monitor adapted to display an image of the patient's body part that is within the optical camera's field of view; and characterised by comprising a processor in communication with the optical camera and the monitor, the processor having a memory within which a plurality of reference images are stored, each reference image depicting an exemplary body part, wherein the processor is configured to compare the position of the patient body part depicted in the patient image to the position of the exemplary body part depicted within the selected reference image, wherein the processor is configured to provide a positive or negative notification based on the comparison, wherein the positive or negative notification is provided using a visual aid, wherein the processor is configured to scale the size of the exemplary body part depicted within the reference image to compare the position of the patient body part to the position of the exemplary body part, wherein the positive or negative notification is provided using a visual aid in conjunction with the displayed image of the patient's body part, and further wherein the patient image and reference image are shown side-by-side on the monitor.
A rotor mechanism for use in moving fluid, the rotor mechanism comprising: a plurality of rotor units (30a-f) spherically arranged to form a rotor mechanism body; each rotor unit including an outer surface (32a-f) and an inner surface (38a-f) and at least one rotor unit having a first opening on the outer surface and a second opening on the inner surface such that an elongate aperture extends between the first and second openings to create a port through the rotor unit; and wherein rotation of at least one rotor unit causes rotation of adjacent rotor units which thereby moves fluid without compression between an outer surface (32a-f) of the body and the port via a central substantially spherical free space cavity formed by the cooperation of the inner surfaces (38a-f) of the rotor units. a plurality of rotor units (30a-f) spherically arranged to form a rotor mechanism body; each rotor unit including an outer surface (32a-f) and an inner surface (38a-f) and at least one rotor unit having a first opening on the outer surface and a second opening on the inner surface such that an elongate aperture extends between the first and second openings to create a port through the rotor unit; and wherein rotation of at least one rotor unit causes rotation of adjacent rotor units which thereby moves fluid without compression between an outer surface (32a-f) of the body and the port via a central substantially spherical free space cavity formed by the cooperation of the inner surfaces (38a-f) of the rotor units.
Nuclear power plant, comprising a containment and a filtered containment venting system, • the filtered containment venting system comprising a pressure relief line leading from inside the containment to the outside, • a catalytic recombiner for hydrogen removal being located at or shortly after the inlet of the pressure relief line and, further downstream, a wet scrubber being switched into the pressure relief line, • the wet scrubber being located inside the containment and comprising a washing liquid compartment for a washing liquid in it and a gas dome above it, configured such that during venting operation a venting stream is washed by the washing liquid and then enters the gas dome, • the gas dome being hermetically sealed against the containment atmosphere, wherein the washing liquid compartment is part of a larger reservoir located inside the containment, and wherein the washing liquid compartment is in flow communication with the rest of the reservoir such that during use washing liquid lost in the washing liquid compartment due to evaporation is automatically replenished by a liquid in the reservoir, characterised in that a cover confining the washing liquid compartment and the gas dome has the shape of a cap or an overturned pot or a bell, partly immersing into the liquid in the reservoir. • the filtered containment venting system comprising a pressure relief line leading from inside the containment to the outside, • a catalytic recombiner for hydrogen removal being located at or shortly after the inlet of the pressure relief line and, further downstream, a wet scrubber being switched into the pressure relief line, • the wet scrubber being located inside the containment and comprising a washing liquid compartment for a washing liquid in it and a gas dome above it, configured such that during venting operation a venting stream is washed by the washing liquid and then enters the gas dome, • the gas dome being hermetically sealed against the containment atmosphere,
A dishwasher comprising: a tub for accommodating dishes therein; a plurality of wash arms (13, 14, 15) configured to spray wash water into the tub; a bubble nozzle configured to eject wash water containing microbubbles to the tub; a sump disposed below a bottom of the tub and configured to collect wash water therein; a wash pump configured to pump wash water collected in the sump; a channel-switching unit configured to supply wash water pumped by the wash pump to at least one of the plurality of wash arms (13, 14, 15); a bubble module configured to generate microbubbles in wash water pumped by the wash pump and to supply wash water containing microbubbles to the bubble nozzle; and a controller configured to operate the wash pump and to control the channel-switching unit and the bubble module; characterized in that the bubble nozzle is configured to eject wash water containing microbubbles to the bottom of the tub; and the controller is configured to control the channel-switching unit and the bubble module to spray wash water through at least one of the plurality of wash arms (13, 14, 15) and simultaneously to eject wash water through the bubble nozzle. a tub for accommodating dishes therein; a plurality of wash arms (13, 14, 15) configured to spray wash water into the tub; a bubble nozzle configured to eject wash water containing microbubbles to the tub; a sump disposed below a bottom of the tub and configured to collect wash water therein; a wash pump configured to pump wash water collected in the sump; a channel-switching unit configured to supply wash water pumped by the wash pump to at least one of the plurality of wash arms (13, 14, 15); a bubble module configured to generate microbubbles in wash water pumped by the wash pump and to supply wash water containing microbubbles to the bubble nozzle; and a controller configured to operate the wash pump and to control the channel-switching unit and the bubble module; the bubble nozzle is configured to eject wash water containing microbubbles to the bottom of the tub; and the controller is configured to control the channel-switching unit and the bubble module to spray wash water through at least one of the plurality of wash arms (13, 14, 15) and simultaneously to eject wash water through the bubble nozzle.