mhurhangee/ep-ind-claims huggingface dataset:
Strobe light for alarm systems comprising a light source containing at least one light-emitting diode and a circuit which powers said light source, said circuit having a feed supply and a flash control device, wherein the inductive down converter, the light source and the flash control device are connected in series, wherein the inductive down converter has a control unit, wherein the control unit is connected in series with an inductor, an induction stop and a resistor, wherein the resistor, in conjunction with the control unit, keeps the current to the light source constant during the period of illumination, wherein the flash control device contains at least one switch for actuating the light source and a microprocessor for actuating the at least one switch, wherein the microprocessor comprises a data communication connection to the message bus of the alarm system, and wherein the pulse shape of the pulses controlling the at least one switch can be adjusted by means of the microprocessor, wherein the width of the said pulses increases with increasing temperature.
Use of at least one bacterial amylase in poultry feed to improve the nutritional value of the feed, for improving weight gain and/or feed conversion ratio of poultry, wherein the bacterial amylase is a polypeptide having at least 80% identity to amino acids 1-481 of SEQ ID NO: 2, and wherein the bacterial amylase is added to the poultry feed at a dose of between 20 and 400 KNU/kg feed.
A method performed by a network node implemented as a second radio access network node (,13) in a second Tracking Radio Access Network, RAN, Area or as a core network node for handling data of a wireless device in a Radio Resource Control, RRC, Dormant state in a communication network, the method comprising: - receiving an Tracking RAN Area Update message from the wireless device, which message indicates a presence of the wireless device at a said second radio access network node holding no context for the wireless device; - identifying (302,402,503) based on the Tracking RAN Area Update message a first radio access network node in a first Tracking RAN Area holding context for the wireless device and any buffered data destined for the wireless device; - retrieving (303,403,504), from the identified first radio access network node, data buffered for the wireless device; and - forwarding (304,404,505) the retrieved data to the wireless device while in said RRC Dormant state. - receiving an Tracking RAN Area Update message from the wireless device, which message indicates a presence of the wireless device at a said second radio access network node holding no context for the wireless device; - identifying (302,402,503) based on the Tracking RAN Area Update message a first radio access network node in a first Tracking RAN Area holding context for the wireless device and any buffered data destined for the wireless device; - retrieving (303,403,504), from the identified first radio access network node, data buffered for the wireless device; and - forwarding (304,404,505) the retrieved data to the wireless device while in said RRC Dormant state.
A process for the preparation of a compound of formula wherein R 1 is C 1-6 alkyl, aryl or benzyl and Y is a leaving group, which process comprises: a) reacting a compound of formula with 2-chloroethanol, in the presence of a suitable base; and b) converting the product of step (a) to the compound of formula with a reagent selected from the group consisting of thionyl chloride, sulfonyl halides, such as sulfonyl chlorides, sulfonyl anhydrides and phosphorus halides. a) reacting a compound of formula with 2-chloroethanol, in the presence of a suitable base; and b) converting the product of step (a) to the compound of formula with a reagent selected from the group consisting of thionyl chloride, sulfonyl halides, such as sulfonyl chlorides, sulfonyl anhydrides and phosphorus halides.
A detector system for evaluating radiation delivered by a radiation beam output from a beam generator, comprising: a hollow phantom enclosing an internal volume and having an outer surface, extending around the internal volume, for exposure to radiation, and an inner surface comprising, at least in part, a scintillating material and facing the internal volume; and a camera external to the enclosed volume and configured to view at least a portion of the inner surface, through an opening of the hollow phantom, when radiated by the radiation beam; characterized by further comprising at least one processor configured to: receive images from the camera; adjust the brightness of one or more first pixels corresponding with scintillating portions of the received images based on brightness of one or more second pixels corresponding with non-scintillating portions of the received images; and calculate, based on the adjusted images, a spatial dose distribution produced by the radiation delivered by the radiation beam to the hollow phantom. a hollow phantom enclosing an internal volume and having an outer surface, extending around the internal volume, for exposure to radiation, and an inner surface comprising, at least in part, a scintillating material and facing the internal volume; and an outer surface, extending around the internal volume, for exposure to radiation, and an inner surface comprising, at least in part, a scintillating material and facing the internal volume; and a camera external to the enclosed volume and configured to view at least a portion of the inner surface, through an opening of the hollow phantom, when radiated by the radiation beam; characterized by further comprising at least one processor configured to: receive images from the camera; adjust the brightness of one or more first pixels corresponding with scintillating portions of the received images based on brightness of one or more second pixels corresponding with non-scintillating portions of the received images; and calculate, based on the adjusted images, a spatial dose distribution produced by the radiation delivered by the radiation beam to the hollow phantom. receive images from the camera; adjust the brightness of one or more first pixels corresponding with scintillating portions of the received images based on brightness of one or more second pixels corresponding with non-scintillating portions of the received images; and calculate, based on the adjusted images, a spatial dose distribution produced by the radiation delivered by the radiation beam to the hollow phantom.
A turbine article for receiving a cooling fluid, comprising: a body portion having an inner surface and an outer surface, the inner surface defining an inner region; at least one up-pass cavity formed within the inner region, the at least one up-pass cavity extending from a base of the body portion towards a tip of the body portion, wherein the at least one up-pass cavity is partially bound by the inner surface; a cap formed in each up-pass cavity, each cap being adjacent to the tip of the body portion and having at least one aperture formed therein; wherein each cap is arranged and disposed to direct fluid from the at least one up-pass cavity, through the at least one aperture formed therein, and towards the tip of the body portion; a down-pass cavity formed within the inner region; and a partition disposed and positioned between each of the at least one up-pass cavity and the down-pass cavity, each partition being arranged such that a first face of each partition forms a wall of the at least one up-pass cavity and a second face opposite the first face forms a wall of the down-pass cavity. a body portion having an inner surface and an outer surface, the inner surface defining an inner region; at least one up-pass cavity formed within the inner region, the at least one up-pass cavity extending from a base of the body portion towards a tip of the body portion, wherein the at least one up-pass cavity is partially bound by the inner surface; a cap formed in each up-pass cavity, each cap being adjacent to the tip of the body portion and having at least one aperture formed therein; wherein each cap is arranged and disposed to direct fluid from the at least one up-pass cavity, through the at least one aperture formed therein, and towards the tip of the body portion; a down-pass cavity formed within the inner region; and a partition disposed and positioned between each of the at least one up-pass cavity and the down-pass cavity, each partition being arranged such that a first face of each partition forms a wall of the at least one up-pass cavity and a second face opposite the first face forms a wall of the down-pass cavity.
Portable laser cleaning appliance, comprising an appliance body comprising a work surface and an aperture for emanating optical energy for cleaning; an optical transmission pathway arranged for propagating optical energy received from an optical energy source to said aperture for emanation of the optical energy for the cleaning; said portable laser cleaning appliance being adapted and constructed so as to be hand held and for cleaning a fabric material, including cleaning by emanating from the aperture the optical energy having one or more optical parameters selected so as to remove a selected contaminant from the fabric material; and wherein the work surface is arranged such that said work surface is in physical contact with the fabric material during cleaning.
A transmission control protocol, TCP, high availability, HA, communication system, comprising: a first main board or active main board, the first main board comprising a first processor, the first processor including a first application component and a first TCP component, the first application component being coupled to the first TCP component for receiving and sending data; and a second main board or standby main board, the second main board comprising a second processor, the second processor including a second application component and a second TCP component, the second application component being coupled to the second TCP component for receiving data, the first TCP component being coupled to the second TCP component for receiving and sending data and messages; characterized by the first TCP component and the second TCP component being configured to concurrently receive incoming data from a line card; the first TCP component being configured to multicast outgoing data to the line card and to the second TCP component. a first main board or active main board, the first main board comprising a first processor, the first processor including a first application component and a first TCP component, the first application component being coupled to the first TCP component for receiving and sending data; and a second main board or standby main board, the second main board comprising a second processor, the second processor including a second application component and a second TCP component, the second application component being coupled to the second TCP component for receiving data, the first TCP component being coupled to the second TCP component for receiving and sending data and messages; characterized by the first TCP component and the second TCP component being configured to concurrently receive incoming data from a line card; the first TCP component being configured to multicast outgoing data to the line card and to the second TCP component.
A method for transmitting uplink-downlink configuration information, the method comprising: generating, by a network device, Downlink Control Information, DCI, comprising Time Division Duplex, TDD, uplink-downlink configuration information; carrying, by the network device, the DCI comprising the TDD uplink-downlink configuration information in a Physical Downlink Control Channel, PDCCH, or an Enhanced Physical Downlink Control Channel, EPDCCH; and transmitting, by the network device, the PDCCH or the EPDCCH in at least one of a predetermined set of sub-frames; characterized by the PDCCH or the EPDCCH referring to a PDCCH or an EPDCCH with a specified logic number or one of a plurality of specified logic numbers. generating, by a network device, Downlink Control Information, DCI, comprising Time Division Duplex, TDD, uplink-downlink configuration information; carrying, by the network device, the DCI comprising the TDD uplink-downlink configuration information in a Physical Downlink Control Channel, PDCCH, or an Enhanced Physical Downlink Control Channel, EPDCCH; and transmitting, by the network device, the PDCCH or the EPDCCH in at least one of a predetermined set of sub-frames;
An orthodontic appliance for a patient comprising: - a support of which at least one outer face is shaped to conform to the shape of the patient's palate, the support being intended to be positioned against the patient's palate, - a peripheral rim of said support intended to be arranged at least facing a palatal face of the upper dental arch when the support is placed against the palate, the rim including a first portion that extends substantially from the collar of the lower dental arch to substantially the occlusion plane, a second portion for extending substantially from the occlusion plane to substantially the collar of the upper dental arch and a third portion that extends substantially from the collar of the upper dental arch to the edges of the palate, the first portion having a greater thickness than the rest of the appliance and the appliance being designed so that when the appliance is in position in the buccal cavity, the rim is not in contact with the patient's teeth. - a support of which at least one outer face is shaped to conform to the shape of the patient's palate, the support being intended to be positioned against the patient's palate, - a peripheral rim of said support intended to be arranged at least facing a palatal face of the upper dental arch when the support is placed against the palate, the rim including a first portion that extends substantially from the collar of the lower dental arch to substantially the occlusion plane, a second portion for extending substantially from the occlusion plane to substantially the collar of the upper dental arch and a third portion that extends substantially from the collar of the upper dental arch to the edges of the palate, the first portion having a greater thickness than the rest of the appliance and the appliance being designed so that when the appliance is in position in the buccal cavity, the rim is not in contact with the patient's teeth.
Quantum dot-doped nanoparticles, each of which comprises a polymer or inorganic core particle, a quantum dot-embedded layer comprising a plurality of quantum dots bound to the surface of the core particle and surrounding the entire surface of the core particle, and a silica/quantum dot composite shell surrounding the quantum dot-embedded layer, wherein the quantum dot-embedded layer is formed by multiple doping of the quantum dots coated with a hydrophobic organic compound on the outer surface of the core particles and the doped quantum dots form layers sequentially surrounding the core particles.
A method comprising: receiving at least one image of a target anatomy of a subject; generating an anatomy geometry of the target anatomy based on segmenting at least one image of the target anatomy; generating a density profile based on the anatomy geometry and a deformation map that correlates pixel or voxel values of at least one image of the target anatomy to a deformation value corresponding to one or more mechanical properties of the target anatomy, wherein the density profile indicates a material ratio for the target anatomy; generating a physical model of the target anatomy based on the anatomy geometry and the density profile; and measuring a physical property value of the physical model or a fluid as the fluid flows through the physical model. receiving at least one image of a target anatomy of a subject; generating an anatomy geometry of the target anatomy based on segmenting at least one image of the target anatomy; generating a density profile based on the anatomy geometry and a deformation map that correlates pixel or voxel values of at least one image of the target anatomy to a deformation value corresponding to one or more mechanical properties of the target anatomy, wherein the density profile indicates a material ratio for the target anatomy; generating a physical model of the target anatomy based on the anatomy geometry and the density profile; and measuring a physical property value of the physical model or a fluid as the fluid flows through the physical model.
A rotary type expander, comprising a first cylinder; a first piston disposed in the first cylinder so as to rotate eccentrically in the first cylinder, and forming a first working chamber (55a, 55b) between itself and the first cylinder; a first partition member partitioning the first working chamber (55a, 55b) into a first suction-side space and a first discharge-side space; a second cylinder disposed so as to be concentric with the first cylinder; a second piston disposed in the second cylinder so as to rotate eccentrically in the second cylinder, and forming a second working chamber (56a, 56b) between itself and the second cylinder, the second working chamber (56a, 56b) having a greater volume than the first working chamber (55a, 55b); a second partition member partitioning the second working chamber (56a, 56b) into a second suction-side space and a second discharge-side space; a communication passage forming a working chamber, for expanding the working fluid, by permitting the first discharge-side space and the second suction-side space to communicate with each other; a plurality of suction ports for guiding the working fluid to the first suction-side space, comprising a first suction port and a second suction port, the second suction port provided with a differential pressure valve and disposed at a position advanced from a position of the first suction port by a predetermined angle in a direction of rotation of the first piston; a control pressure passage connected to the differential pressure valve (72, 74, 76), for supplying the differential pressure valve (72, 74, 76) with a control pressure for opening and closing the differential pressure valve (72, 74, 76), wherein the control pressure is equal to a pressure P1 of the working fluid before expansion or a pressure P2 of the working fluid after expansion; and the control pressure that is equal to one selected from the pressure P1 and the pressure P2 is supplied selectably to the differential pressure valve (72, 74, 76) through the control pressure passage, wherein the differential pressure valve (72, 74, 76) closes at least when the control pressure is equal to the pressure P1; and the differential pressure valve (72, 74, 76) opens at least when the control pressure is equal to the pressure P2, and wherein the differential pressure valve (72, 74, 76) comprises a plunger (72b, 74b, 76b) having one end face to which the pressure in the first working chamber (55a, 55b) is applied and another end face to which the control pressure is applied, and a spring (72c, 74c, 76c) for pushing the plunger (72b, 74b, 76b) toward the first working chamber (55a, 55b).
A surgical robotic system comprising: a robotic manipulator; a surgical tool to be coupled to said robotic manipulator to rotate about a rotational axis to place an implant in a spine of a patient; and a robotic controller coupled to said robotic manipulator to control movement of said surgical tool to place said rotational axis along a desired trajectory, maintain said rotational axis along said desired trajectory, and control installation of the implant in the spine of the patient so that the implant is placed at a desired location, wherein said robotic controller is configured to cause autonomous movement of said surgical tool to place the implant in the spine of the patient until the implant is within a predefined distance of said desired location, and thereafter, said robotic controller is configured to control manual manipulation of said surgical tool until the implant is placed at said desired location. a robotic manipulator; a surgical tool to be coupled to said robotic manipulator to rotate about a rotational axis to place an implant in a spine of a patient; and a robotic controller coupled to said robotic manipulator to control movement of said surgical tool to place said rotational axis along a desired trajectory, maintain said rotational axis along said desired trajectory, and control installation of the implant in the spine of the patient so that the implant is placed at a desired location, wherein said robotic controller is configured to cause autonomous movement of said surgical tool to place the implant in the spine of the patient until the implant is within a predefined distance of said desired location, and thereafter, said robotic controller is configured to control manual manipulation of said surgical tool until the implant is placed at said desired location.
Cutting insert having a central body, at least one cutting tooth radially projecting from the central body, a central thru hole concentrically arranged with respect to a central axis for receiving a fixing screw, and a coupling structure for coupling the insert to a tool holder and for transmitting a torque from the tool holder to the cutting insert, wherein the coupling structure comprises • a perpendicular abutment surface arranged perpendicular to the central axis, • at least two radially extending ribs projecting axially from the bottom surface each having a contact area with a normal direction at least essentially perpendicular to the central axis for opposing a torque about the central axis, characterized in that • the coupling structure comprises a circular cylindrical element with a cylinder abutment surface, the circular cylindrical element projecting axially from a bottom surface of the central body, being arranged concentrically with respect to the central axis and being a full perimeter abutment surface, which is not interrupted by the radially extending ribs. • a perpendicular abutment surface arranged perpendicular to the central axis, • at least two radially extending ribs projecting axially from the bottom surface each having a contact area with a normal direction at least essentially perpendicular to the central axis for opposing a torque about the central axis, • the coupling structure comprises a circular cylindrical element with a cylinder abutment surface, the circular cylindrical element projecting axially from a bottom surface of the central body, being arranged concentrically with respect to the central axis and being a full perimeter abutment surface, which is not interrupted by the radially extending ribs.