mhurhangee/ep-ind-claims huggingface dataset:
An interface card for an electronic assembly configured to receive, process and/or transmit data and to be arranged in an air cooled equipment rack, said interface card comprising: a substrate including: a first mounting area located on a first surface and at an edge of the substrate for mounting at least one optical modular transceiver; a plurality of first thermal vias extending from the first mounting area to at least an interior of the substrate; at least one thermal plane disposed in the interior of the substrate and being substantially parallel to the first surface of the substrate, the at least one thermal plane being in thermal contact with at least one of the first thermal vias,; a heat sink attachment area located at a remote end with respect to the first mounting area for receiving a heat sink; and a plurality of second thermal vias extending from the heat sink attachment area to the interior of the substrate, the at least one thermal plane being in thermal contact with the second thermal vias; wherein at least a portion of the heat generated by an optical modular transceiver mounted at the first mounting area is conducted to a heat sink received at the heat sink attachment area and dissipated into an airflow that flows by the interface card. a substrate including: a first mounting area located on a first surface and at an edge of the substrate for mounting at least one optical modular transceiver; a plurality of first thermal vias extending from the first mounting area to at least an interior of the substrate; at least one thermal plane disposed in the interior of the substrate and being substantially parallel to the first surface of the substrate, the at least one thermal plane being in thermal contact with at least one of the first thermal vias,; a heat sink attachment area located at a remote end with respect to the first mounting area for receiving a heat sink; and a plurality of second thermal vias extending from the heat sink attachment area to the interior of the substrate, the at least one thermal plane being in thermal contact with the second thermal vias; a first mounting area located on a first surface and at an edge of the substrate for mounting at least one optical modular transceiver; a plurality of first thermal vias extending from the first mounting area to at least an interior of the substrate; at least one thermal plane disposed in the interior of the substrate and being substantially parallel to the first surface of the substrate, the at least one thermal plane being in thermal contact with at least one of the first thermal vias,; a heat sink attachment area located at a remote end with respect to the first mounting area for receiving a heat sink; and a plurality of second thermal vias extending from the heat sink attachment area to the interior of the substrate, the at least one thermal plane being in thermal contact with the second thermal vias; wherein at least a portion of the heat generated by an optical modular transceiver mounted at the first mounting area is conducted to a heat sink received at the heat sink attachment area and dissipated into an airflow that flows by the interface card.
A dialysis machine (200, 300, 400, 500, 600, 900, 1400) comprising a fluid circuit for providing a dialysis fluid to a dialyser (226, 326, 526, 926, 1426), wherein the fluid circuit comprises a tube (203, 303, 503, 903, 1403) with a first valve (212, 312, 512, 912, 1412) for providing a disinfectant fluid for disinfecting at least a part of the fluid circuit at disinfection of the dialysis machine, characterised in that the tube with the first valve is arranged to provide the disinfectant fluid upstream the dialyser and at a position in the fluid circuit where, during disinfection, disinfectant can be sucked up by a pump for concentrate distribution or by a flow pump providing fluid to the dialyser, and where pressure is, during treatment, such that a pressure gradient between ports of the first valve is provided, the ports comprising at least a disinfectant fluid port and a fluid circuit port, such that the disinfectant fluid port of the first valve is enabled to be connected to a source of disinfectant (204, 304, 504, 904, 1404) also during treatment without any disinfectant being able to reach the fluid circuit.
A method for managing a mobile broadband device, implemented by the mobile broadband device, comprising: sending a local device identifier to a server, wherein the local device identifier comprises an IP address, a device model, software and hardware version numbers, an international mobile equipment identity, and an international mobile subscriber identity; updating a customized parameter of the mobile broadband device according to a customized parameter returned by the server, wherein the customized parameter is a parameter preset in the server and corresponding to the local device identifier of the mobile broadband device; sending a request for opening a Web management page to the server; receiving a management command sent by a host-side device on the Web management page, said Web management page being sent by the server to the host-side device; and executing the management command through an application programming interface corresponding to the management command on the mobile broadband device. sending a local device identifier to a server, wherein the local device identifier comprises an IP address, a device model, software and hardware version numbers, an international mobile equipment identity, and an international mobile subscriber identity; updating a customized parameter of the mobile broadband device according to a customized parameter returned by the server, wherein the customized parameter is a parameter preset in the server and corresponding to the local device identifier of the mobile broadband device; sending a request for opening a Web management page to the server; receiving a management command sent by a host-side device on the Web management page, said Web management page being sent by the server to the host-side device; and executing the management command through an application programming interface corresponding to the management command on the mobile broadband device.
A process for the production of a surface coated support material, comprising - contacting a support material with an aqueous dispersion of nanocellulose, wherein at least a portion of the nanocellulose coated on the support material is orientated perpendicular to the surface of the support material. - contacting a support material with an aqueous dispersion of nanocellulose, wherein at least a portion of the nanocellulose coated on the support material is orientated perpendicular to the surface of the support material.
Data transmission unit, which has a receive unit as well as a transmit unit which is able to be moved relative to the receive unit, and is configured for transmission of data from the transmit unit to the receive unit via a coupler even during a relative movement between transmit unit and receive unit, wherein the coupler has a first dielectric waveguide, characterised in that on the one hand the first dielectric waveguide has a conductor body for conveying electromagnetic waves from the frequency range 40 to 300 GHz and a retaining structure for fixing the first dielectric waveguide to a unit and, on the other hand, the retaining structure is embodied by a number of retaining arms, which are formed on the conductor body, and/or the first dielectric waveguide forms a kind of profile strip, wherein the profile strip embodying the first dielectric waveguide, seen in cross-section, has a number of retaining webs, which extend transversely to the longitudinal extent of the profile strip.
A fan for installation in a window, the fan comprising a cylindrical main body having an inner spigot and a concentric outer sleeve such that air flows between the inner spigot and the outer sleeve; wherein the inner spigot houses a motor for driving an impeller; wherein the fan further comprises a window attachment mechanism for attaching the fan in a window and a rear grille located behind the main body, the rear grille comprising a plurality of louvers that open when the fan is in operation; and characterised in that the inner spigot further houses control electronics (340, 350) for controlling the motor and electronics for voltage transformation.
A method for making a metallic decoration sheet, comprising the successive steps of: attaching a thermoplastic resin sheet via a first adhesive material layer to a metal layer side face of a transfer film having the metal layer disposed on a smooth mold release face of a mold release substrate so as to obtain a base sheet; removing the mold release substrate from the base sheet to obtain an intermediate laminate sheet; and attaching an acrylic resin film as the outermost surface film layer via a second adhesive material layer to a metal layer side face of the intermediate laminate sheet. attaching a thermoplastic resin sheet via a first adhesive material layer to a metal layer side face of a transfer film having the metal layer disposed on a smooth mold release face of a mold release substrate so as to obtain a base sheet; removing the mold release substrate from the base sheet to obtain an intermediate laminate sheet; and attaching an acrylic resin film as the outermost surface film layer via a second adhesive material layer to a metal layer side face of the intermediate laminate sheet.
A method of bonding an optical crystal to a substrate, comprising: irradiating a pulsed laser beam through the optical crystal or through the substrate onto a surface area, formed between the optical crystal and the substrate to firmly bond the optical crystal to the substrate by forming a fusion zone, wherein an intermediate layer is formed between the optical crystal and the substrate, and wherein the pulsed laser beam is irradiated onto the surface area of the intermediate layer to form the fusion zone, characterized by removing material from the optical crystal after bonding to form at least one waveguide on the optical crystal or by selectively removing the intermediate layer by etching before or after forming the at least one weld seam to form free-standing microstructures. irradiating a pulsed laser beam through the optical crystal or through the substrate onto a surface area, formed between the optical crystal and the substrate to firmly bond the optical crystal to the substrate by forming a fusion zone, wherein an intermediate layer is formed between the optical crystal and the substrate, and wherein the pulsed laser beam is irradiated onto the surface area of the intermediate layer to form the fusion zone, characterized by removing material from the optical crystal after bonding to form at least one waveguide on the optical crystal or by selectively removing the intermediate layer by etching before or after forming the at least one weld seam to form free-standing microstructures.
A sustained-release pharmaceutical dosage form for use in preventing or treating an esophageal disorder selected from heartburn, dyspepsia, erosive esophagitis, GERD, esophagitis, Barrett's esophagus, esophageal adenocarcinoma and GERD-related pulmonary dysfunctions selected from asthma and/or cough, wherein the dosage is for oral administration and comprises colesevelam, colesevelam hydrochloride, colestipol, sevelamer or a combination thereof in a range from 0.1 g to 3 g, and a gastric-retention vehicle composition comprising one or more hydrogels, wherein the dosage form expands upon contact with gastric fluid.
An electric device having multiple data connection ports, comprising: a body comprising M surfaces and N data connection ports, wherein the N data connection ports are disposed on the M surfaces, M, N are positive integers and N is greater than or equal to 2; a processing unit comprising a first interface control unit and a second interface control unit; and a detecting switch unit coupled to the first interface control unit, the second interface control unit and the data connection ports, and used to detect whether the data connecting ports are connected, and, while detecting that the i th data connection port and the j th data connection port are connected, the detecting switch unit assigning the i th data connection port and the j th data connection port to be controlled by the first interface control unit and the second interface control unit respectively, and disabling the data connection ports other than the i th data connection port and the j th data connection port, wherein i and j are positive integers, i≠j and 1≦i, j≦N; and wherein the data connection ports, the first interface control unit and the second interface control unit conform to a data transfer protocol having a daisy-chain connection property. a body comprising M surfaces and N data connection ports, wherein the N data connection ports are disposed on the M surfaces, M, N are positive integers and N is greater than or equal to 2; a processing unit comprising a first interface control unit and a second interface control unit; and a detecting switch unit coupled to the first interface control unit, the second interface control unit and the data connection ports, and used to detect whether the data connecting ports are connected, and, while detecting that the i th data connection port and the j th data connection port are connected, the detecting switch unit assigning the i th data connection port and the j th data connection port to be controlled by the first interface control unit and the second interface control unit respectively, and disabling the data connection ports other than the i th data connection port and the j th data connection port, wherein i and j are positive integers, i≠j and 1≦i, j≦N; and wherein the data connection ports, the first interface control unit and the second interface control unit conform to a data transfer protocol having a daisy-chain connection property.
A method for producing FRP, Fiber Reinforced Plastic, in which a preform made of a reinforcing fiber base material is disposed in a cavity of a mold, a resin injection path and a suction path for sucking at least air are provided to said mold, and resin from said resin injection path is made to flow in a direction toward said suction path in said cavity to be impregnated into said preform wherein a high flow resistance region for partially making said resin flowing in said preform hardly flow is formed in said preform itself, and a flow front of said resin flowing in said direction toward said suction path through said high flow resistance region is controlled so as to settle within a permitted region that has been predetermined relatively to a shape of a product to be molded, wherein the high flow resistance region is formed by reducing the thickness of the preform at the high flow resistance region by the mold, or is formed by enhancing the density of arrangement of reinforcing fibers in the preform at the position of the high flow resistance region in advance, wherein said resin injection path is formed from a plurality of resin injection ports opened facing one surface of said preform disposed in said cavity, said high flow resistance region is formed as a high flow resistance region for partially making said resin flowing in said preform from an inside part of said preform toward an outer circumference part of said preform hardly flow so as to extend along said outer circumference part of said preform at a position outside a molded product relatively to an outline of said product to be molded, and wherein. an air trap region for sucking air discharged through at least said high flow resistance region is formed by said mold at a position outside said high flow resistance region of said preform so as to extend along said high flow resistance region.
Korsch-type telescope comprising the following elements, listed in order according to a direction of propagation of rays forming a final image of a portion of a scene situated around a viewing direction of the telescope: - a primary mirror having a central aperture, - a secondary mirror disposed in front of the primary mirror, - a tertiary mirror, disposed behind the primary mirror for receiving, through the aperture of the primary mirror, rays reflected by said primary mirror, then by the secondary mirror, and - an image detector, disposed in a formation plane of the final image as formed by the primary, secondary and tertiary mirrors, the primary and secondary mirrors furthermore being arranged so as to form, between said secondary mirror and said tertiary mirror, an intermediate image of the portion of the scene, the telescope being characterised in that it further comprises first, second and third flat folding mirrors situated behind the primary mirror, - said first folding mirror being situated on a path of the rays between the secondary and tertiary mirrors, and oriented so that the rays form, immediately after reflection on said first folding mirror, a beam with a first direction of propagation making an angle (α 1) of less than 20° with a radial direction of the primary mirror, and - said second and third folding mirrors being situated along the rays between the tertiary mirror and the detector, and having respective optical axes (R 5, R 6) each forming an angle (α 5, α 6) of less than 20° with a mean plane of the primary mirror. - a primary mirror having a central aperture, - a secondary mirror disposed in front of the primary mirror, - a tertiary mirror, disposed behind the primary mirror for receiving, through the aperture of the primary mirror, rays reflected by said primary mirror, then by the secondary mirror, and - an image detector, disposed in a formation plane of the final image as formed by the primary, secondary and tertiary mirrors, the primary and secondary mirrors furthermore being arranged so as to form, between said secondary mirror and said tertiary mirror, an intermediate image of the portion of the scene, the telescope being characterised in that it further comprises first, second and third flat folding mirrors situated behind the primary mirror, - said first folding mirror being situated on a path of the rays between the secondary and tertiary mirrors, and oriented so that the rays form, immediately after reflection on said first folding mirror, a beam with a first direction of propagation making an angle (α 1) of less than 20° with a radial direction of the primary mirror, and - said second and third folding mirrors being situated along the rays between the tertiary mirror and the detector, and having respective optical axes (R 5, R 6) each forming an angle (α 5, α 6) of less than 20° with a mean plane of the primary mirror.
A method of decoding a block of video data, the method comprising: deriving, from among N + M intra prediction modes, M most probable modes, MPMs, for intra prediction of the block of video data, wherein M is greater than 3; decoding a syntax element that indicates whether a MPM index or a non-MPM index is used to indicate a selected intra prediction mode of the plurality of intra prediction modes for intra prediction of the block of video data, wherein the MPM index indicates which of the M MPMs for intra prediction of the block of video data is the selected intra prediction mode, and wherein the non-MPM index indicates which of the N + M intra prediction modes other than the M MPMs for intra prediction of the block of video data is the selected intra prediction mode; based on the non-MPM index indicating the selected intra prediction mode, decoding the non-MPM index, wherein, the non-MPM index is encoded in the bitstream as a code word shorter than ┌log 2 N ┐ bits if the non-MPM index is one of X selected non-MPM indexes of the N + M intra prediction modes and is encoded in the bitstream as a fixed length code with ┌log 2 N ┐ bits otherwise, X being an integer, wherein there is a total of N available values of the non-MPM index; and reconstructing the block of video data based on the selected intra prediction mode. deriving, from among N + M intra prediction modes, M most probable modes, MPMs, for intra prediction of the block of video data, wherein M is greater than 3; decoding a syntax element that indicates whether a MPM index or a non-MPM index is used to indicate a selected intra prediction mode of the plurality of intra prediction modes for intra prediction of the block of video data, wherein the MPM index indicates which of the M MPMs for intra prediction of the block of video data is the selected intra prediction mode, and wherein the non-MPM index indicates which of the N + M intra prediction modes other than the M MPMs for intra prediction of the block of video data is the selected intra prediction mode; based on the non-MPM index indicating the selected intra prediction mode, decoding the non-MPM index, wherein, the non-MPM index is encoded in the bitstream as a code word shorter than ┌log 2 N ┐ bits if the non-MPM index is one of X selected non-MPM indexes of the N + M intra prediction modes and is encoded in the bitstream as a fixed length code with ┌log 2 N ┐ bits otherwise, X being an integer, wherein there is a total of N available values of the non-MPM index; and reconstructing the block of video data based on the selected intra prediction mode.
A sample preparation apparatus comprising: an ion source having an anode, at least one cathode (12, 13), and an extraction electrode for extracting an ion beam by use of an output current supplied to the anode; a high-voltage circuit for applying a voltage between the anode and the cathode (12, 13) based on a voltage condition and supplying said output current to the anode; a gas flow rate adjusting mechanism for adjusting the flow rate of a gas being an ion source material for generating ions and to be admitted into the ion source; a memory in which there is stored information representing a relationship between the flow rate of the gas being the ion source material and values of an extraction current flowing into the extraction electrode; an arithmetic processor for finding the extraction current corresponding to the flow rate of the gas being the ion source material based on the information stored in the memory and computing the value of electrical current of the ion beam passing through the extraction electrode by subtracting the value of the extraction current from the value of the output current supplied to the anode by the high-voltage circuit; an output section for producing an output of the electrical current value of the ion beam passing through the extraction electrode computed by the arithmetic processor; and a milling chamber in which a prepared sample is irradiated with the ion beam passed through the extraction electrode to mill the sample. an ion source having an anode, at least one cathode (12, 13), and an extraction electrode for extracting an ion beam by use of an output current supplied to the anode; a high-voltage circuit for applying a voltage between the anode and the cathode (12, 13) based on a voltage condition and supplying said output current to the anode; a gas flow rate adjusting mechanism for adjusting the flow rate of a gas being an ion source material for generating ions and to be admitted into the ion source; a memory in which there is stored information representing a relationship between the flow rate of the gas being the ion source material and values of an extraction current flowing into the extraction electrode; an arithmetic processor for finding the extraction current corresponding to the flow rate of the gas being the ion source material based on the information stored in the memory and computing the value of electrical current of the ion beam passing through the extraction electrode by subtracting the value of the extraction current from the value of the output current supplied to the anode by the high-voltage circuit; an output section for producing an output of the electrical current value of the ion beam passing through the extraction electrode computed by the arithmetic processor; and a milling chamber in which a prepared sample is irradiated with the ion beam passed through the extraction electrode to mill the sample.