mhurhangee/ep-ind-claims huggingface dataset:
A flow sensor, comprising: a fluidic component, which comprises a tube shaped in the form of a loop defining a flow path having an inlet end and an outlet end, the inlet and outlet ends crossing and being positioned adjacent to one another, thereby providing sufficient thermal communication between the ends of the fluidic component to equilibrate in temperature and provide a common temperature; a heat source disposed in thermal communication with a fluid in the flow path for delivering heat to the fluid in the fluid path; an upstream temperature sensor disposed in thermal communication with the fluid in the flow path; a downstream temperature sensor disposed in thermal communication with the fluid in the flow path at a location downstream of the upstream temperature sensor; a substrate, in thermal communication with the inlet and outlet ends of the flow path, that provides a common ambient temperature for the inlet and outlet ends of the flow path; an isolation cover that surrounds the fluidic component, and is disposed in physical communication with the substrate; and a thermally isolating material which is enclosed by the isolation cover, such that conductive, convective and radiant loss and/or absorption of heat via the surface of the fluidic component is minimised. a fluidic component, which comprises a tube shaped in the form of a loop defining a flow path having an inlet end and an outlet end, the inlet and outlet ends crossing and being positioned adjacent to one another, thereby providing sufficient thermal communication between the ends of the fluidic component to equilibrate in temperature and provide a common temperature; a heat source disposed in thermal communication with a fluid in the flow path for delivering heat to the fluid in the fluid path; an upstream temperature sensor disposed in thermal communication with the fluid in the flow path; a downstream temperature sensor disposed in thermal communication with the fluid in the flow path at a location downstream of the upstream temperature sensor; a substrate, in thermal communication with the inlet and outlet ends of the flow path, that provides a common ambient temperature for the inlet and outlet ends of the flow path; an isolation cover that surrounds the fluidic component, and is disposed in physical communication with the substrate; and a thermally isolating material which is enclosed by the isolation cover, such that conductive, convective and radiant loss and/or absorption of heat via the surface of the fluidic component is minimised.
A silicon carbide semiconductor device comprising: a p-type silicon carbide single crystal (3, 4); and an ohmic electrode for the p-type silicon carbide single crystal (3, 4); wherein the ohmic electrode includes an alloy layer containing at least titanium, aluminum and silicon, and ratios of titanium, aluminum, and silicon in the alloy layer are Al: 40 to 70% by mass, Ti: 20 to 50% by mass, and Si: 1 to 15% by mass, and wherein the alloy layer includes a two-layer structure constituted of a first alloy layer provided on the p-type silicon carbide single crystal side and a second alloy layer provided on the side opposite to the p-type silicon carbide single crystal while being interposed by the first alloy layer. a p-type silicon carbide single crystal (3, 4); and an ohmic electrode for the p-type silicon carbide single crystal (3, 4); wherein the ohmic electrode includes an alloy layer containing at least titanium, aluminum and silicon, and ratios of titanium, aluminum, and silicon in the alloy layer are Al: 40 to 70% by mass, Ti: 20 to 50% by mass, and Si: 1 to 15% by mass, and wherein the alloy layer includes a two-layer structure constituted of a first alloy layer provided on the p-type silicon carbide single crystal side and a second alloy layer provided on the side opposite to the p-type silicon carbide single crystal while being interposed by the first alloy layer.
A mobile electronic device, comprising: a fuel cell adapted to generate electrical power for the mobile electronic device; a fuel tank (14;72) adapted to store fuel for the fuel cell; and an energy storage device (18;78) adapted to provide power to the mobile device; characterised in that the fuel tank (14;72) is in thermal contact with at least three outer surfaces of the energy storage device (18;78), and at least one of surface interfaces between the energy storage device (18;78) and the fuel tank (14;72) comprises heat transfer enhancing surface features sized and shaped to enhance heat transfer between the energy storage device (18;78) and the fuel tank (14;72). a fuel cell adapted to generate electrical power for the mobile electronic device; a fuel tank (14;72) adapted to store fuel for the fuel cell; and an energy storage device (18;78) adapted to provide power to the mobile device; characterised in that the fuel tank (14;72) is in thermal contact with at least three outer surfaces of the energy storage device (18;78), and at least one of surface interfaces between the energy storage device (18;78) and the fuel tank (14;72) comprises heat transfer enhancing surface features sized and shaped to enhance heat transfer between the energy storage device (18;78) and the fuel tank (14;72).
An apparatus comprising: a plurality of side walls, wherein the plurality of side walls is configured on one end to be attached to a pump bearing housing and configured to surround one or more axial proximity probes configured to measure an axial position of one or more thrust collars in a pump bearing housing; at least one access window formed through at least one side wall of the apparatus, wherein the at least one access window is essentially rectangular in shape and configured to provide access to a wrench to turn a locking collar of the one or more axial proximity probes; at least one removable access plate configured to at least partly cover the at least one access window; and the apparatus further comprises one or more mounting tabs, wherein the one or more axial proximity probes are mounted in the one or more mounting tabs of the apparatus. a plurality of side walls, wherein the plurality of side walls is configured on one end to be attached to a pump bearing housing and configured to surround one or more axial proximity probes configured to measure an axial position of one or more thrust collars in a pump bearing housing; at least one access window formed through at least one side wall of the apparatus, wherein the at least one access window is essentially rectangular in shape and configured to provide access to a wrench to turn a locking collar of the one or more axial proximity probes; at least one removable access plate configured to at least partly cover the at least one access window; and the apparatus further comprises one or more mounting tabs, wherein the one or more axial proximity probes are mounted in the one or more mounting tabs of the apparatus.
A method of separating fluid phases in a well or riser, comprising: locating an inlet device at a substantially horizontal portion of the well or riser, wherein a portion of a flexible tubing extends into the well or riser and the flexible tubing terminates at the inlet device; biasing the inlet device against an inside wall of the well or riser; extracting a stratified fluid phase from the well or riser through the inlet device and flexible tubing, wherein the inlet device comprises a curved portion matching the shape of part of the inside wall wherein the inlet device comprises a partially tubular outer wall, wherein the curved portion of the inlet device is an outer curvature of the partially tubular outer wall which matches an inner curvature of the inside wall of the riser or the well, and wherein the inlet device is biased against the inside wall of the well or riser such that the inlet device is flush with the inside wall of the well or riser. locating an inlet device at a substantially horizontal portion of the well or riser, wherein a portion of a flexible tubing extends into the well or riser and the flexible tubing terminates at the inlet device; biasing the inlet device against an inside wall of the well or riser; extracting a stratified fluid phase from the well or riser through the inlet device and flexible tubing, wherein the inlet device comprises a curved portion matching the shape of part of the inside wall wherein the inlet device comprises a partially tubular outer wall, wherein the curved portion of the inlet device is an outer curvature of the partially tubular outer wall which matches an inner curvature of the inside wall of the riser or the well, and wherein the inlet device is biased against the inside wall of the well or riser such that the inlet device is flush with the inside wall of the well or riser.
Shaft for a medical hand instrument comprising a distal shaft section and a proximal shaft section, the respective end faces (6, 8) of which facing one another and of which at least one is set at an angle of incidence not equal to 90° with respect to the respective longitudinal axis of the shaft, so that different shaft shapes result depending on the relative rotational position of the two shaft sections (2, 4) characterized in that a pinion of the proximal shaft section is connected to an adjusting bush in the distal shaft section by a flexible transmission element (34; 42; 50; 52) in a rotationally transmitting manner.
An intra-oral dental attachment for orthodontic treatment for use with an orthodontic appliance, the dental attachment comprising: an automatic communication module to receive treatment information comprising desired orthodontic movement information of at least one tooth, the automatic communication module comprising a radio-frequency identification (RFID) reader that reads the treatment information in a RFID transponder in or on the orthodontic appliance, or an array of sensors or switches (118, 121, 122) that reads the treatment information in material properties or optical properties of the orthodontic appliance; at least one ultrasound transducer (23, 24) configured to selectively emit ultrasound to the dental area proximate the at least one tooth pursuant to the treatment information; wherein the RFID reader or the array of sensors or switches (118, 121, 122) are positioned at tooth crown level and the at least one ultrasound transducer (23, 24) is positioned at tooth root level. an automatic communication module to receive treatment information comprising desired orthodontic movement information of at least one tooth, the automatic communication module comprising a radio-frequency identification (RFID) reader that reads the treatment information in a RFID transponder in or on the orthodontic appliance, or an array of sensors or switches (118, 121, 122) that reads the treatment information in material properties or optical properties of the orthodontic appliance; at least one ultrasound transducer (23, 24) configured to selectively emit ultrasound to the dental area proximate the at least one tooth pursuant to the treatment information;
A method for manufacturing a hollow-floor element, comprising at least two superimposed load-bearing individual panels (1.3), the method comprising laying at least two load-bearing individual panels (1,3) on top of each other and firmly joining the at least two load-bearing individual panels (1.3) together, in particular by gluing, wherein at least one of the load-bearing individual panels (1,3) is a gypsum fibreboard comprising a gypsum matrix, characterized in that said method comprises the step of manufacturing said gypsum matrix of the gypsum fibreboard from 80 to 95% by weight calcium sulphate β-semi-hydrate and 5 to 20% by weight calcium sulphate α-semi-hydrate, relative to the total amount of the calcium sulphate semi-hydrate.
A blade or a vane for a gas turbine engine, the blade or vane comprising: an aerofoil; and a leading edge member (54, 154, 254) attached to the aerofoil; wherein the leading edge member comprises an electrically conductive support member (56, 156, 256) that defines the general shape of the leading edge of the blade or vane and the aerofoil defines the remainder of the general shape of the blade or vane, and the leading edge member comprises a nano-crystalline metallic layer (53, 153, 253) formed on the support member (56, 156, 256). an aerofoil; and a leading edge member (54, 154, 254) attached to the aerofoil; wherein the leading edge member comprises an electrically conductive support member (56, 156, 256) that defines the general shape of the leading edge of the blade or vane and the aerofoil defines the remainder of the general shape of the blade or vane, and the leading edge member comprises a nano-crystalline metallic layer (53, 153, 253) formed on the support member (56, 156, 256).
A system for delivery of a medical device, said system comprising: a delivery member; and a medical device mounted to the delivery member and releasably retained in a delivery configuration for endoluminal delivery of the medical device toward a treatment site in a human vessel, wherein the delivery member includes a first catheter configured to extend outside of the body from a first percutaneous access site and a second catheter configured to extend outside the body from a second percutaneous access site to allow positioning of the medical device at the treatment site by manipulation of the first catheter and second catheter from outside of the body, wherein the leading ends of the first and second catheters (300, 400) are configured for matingly engaging with each other, characterised in that the leading ends of the first and second catheters are configured to be coupled by providing the medical device in a delivery configuration on a leading end of one of the first and second catheters and to partially deploy the medical device toward releasable engagement with a leading end of the other of the first and second catheters a delivery member; and a medical device mounted to the delivery member and releasably retained in a delivery configuration for endoluminal delivery of the medical device toward a treatment site in a human vessel, wherein the delivery member includes a first catheter configured to extend outside of the body from a first percutaneous access site and a second catheter configured to extend outside the body from a second percutaneous access site to allow positioning of the medical device at the treatment site by manipulation of the first catheter and second catheter from outside of the body, wherein the leading ends of the first and second catheters (300, 400) are configured for matingly engaging with each other, characterised in that the leading ends of the first and second catheters are configured to be coupled by providing the medical device in a delivery configuration on a leading end of one of the first and second catheters and to partially deploy the medical device toward releasable engagement with a leading end of the other of the first and second catheters
A piezoelectric/electrostrictive ceramics composition represented by a general formula Pb a {Zn b Sb c (Zr d Ti 1-d) 1-b-c}O 3 in which a, b, c, and d satisfy 0.985 ≤ a ≤ 0.998, 0.010 ≤ b ≤ 0.040, 0.025 ≤ c ≤ 0.090, 0.460 ≤ d ≤ 0.510, and 2.125 ≤ c/b ≤ 3.000.
A method for playing a digital content title synchronously across multiple endpoint devices, the method comprising: transmitting, by a first endpoint device of said multiple endpoint devices, a playback session identifier to a content server, wherein a said playback session identifier is transmitted by each of said multiple endpoint devices to the content server and wherein the playback session identifier is associated with a unique synchronized playback session for the digital content title and binds the first endpoint device to the unique synchronized playback session; transmitting, from the first endpoint device to the content server, an event request that includes a playback command and a specified time for executing the playback command; receiving, by the first endpoint device from the content server, a server side event that includes the playback command and the specified time for executing the playback command, whereby the server side event is received by each of said multiple endpoint devices from the content server; scheduling, by the first endpoint device, the playback command for execution at the specified time based on a local time signal generated by the first endpoint device that has been synchronized to a time reference signal generated by a remote time server; and executing, by the first endpoint device, the playback command at the specified time. transmitting, by a first endpoint device of said multiple endpoint devices, a playback session identifier to a content server, wherein a said playback session identifier is transmitted by each of said multiple endpoint devices to the content server and wherein the playback session identifier is associated with a unique synchronized playback session for the digital content title and binds the first endpoint device to the unique synchronized playback session; transmitting, from the first endpoint device to the content server, an event request that includes a playback command and a specified time for executing the playback command; receiving, by the first endpoint device from the content server, a server side event that includes the playback command and the specified time for executing the playback command, whereby the server side event is received by each of said multiple endpoint devices from the content server; scheduling, by the first endpoint device, the playback command for execution at the specified time based on a local time signal generated by the first endpoint device that has been synchronized to a time reference signal generated by a remote time server; and executing, by the first endpoint device, the playback command at the specified time.
An automatic analyzer comprising: an information storage medium on which information can be written, wherein, among the information stored on the information storage medium, there is liquid ID information to be used for liquid identification; a liquid vessel to which the information storage medium is attached; and overwriting means, wherein the liquid ID information is stored on the information storage medium as a bit array and, when the liquid in said liquid vessel is judged unusable by the analyzer, the overwriting means is adapted to overwrite all or part of the liquid ID information with values that are out of a defined value range of the liquid ID information, thereby rendering the overwritten information unrecognizable as a liquid ID information to the analyzer, characterized in that the overwriting means is adapted to render the liquid ID information unreadable by overwriting it with characters or values other than the characters or values constituting the liquid ID information, the overwriting means being adapted to obtain said characters or values by a bit operation in which the liquid ID information is combined with additional information such as information judged unnecessary, the device ID information of the analyzer that made the judgment, or liquid manufacturer ID information. an information storage medium on which information can be written, wherein, among the information stored on the information storage medium, there is liquid ID information to be used for liquid identification; a liquid vessel to which the information storage medium is attached; and overwriting means, wherein the liquid ID information is stored on the information storage medium as a bit array and, when the liquid in said liquid vessel is judged unusable by the analyzer, the overwriting means is adapted to overwrite all or part of the liquid ID information with values that are out of a defined value range of the liquid ID information, thereby rendering the overwritten information unrecognizable as a liquid ID information to the analyzer, characterized in that the overwriting means is adapted to render the liquid ID information unreadable by overwriting it with characters or values other than the characters or values constituting the liquid ID information, the overwriting means being adapted to obtain said characters or values by a bit operation in which the liquid ID information is combined with additional information such as information judged unnecessary, the device ID information of the analyzer that made the judgment, or liquid manufacturer ID information.
Dry screed system, which can be laid on a floor or substrate, comprising a base layer formed from base panels, and at least one top panel layer formed from top panels, wherein the base panels contain gypsum, or are formed from gypsum, wherein the top panels contain wood, or a flexurally rigid wood-based material, or are formed from a flexurally rigid wood, or from a flexurally rigid wood-based material, and wherein the top panels can be adhesively bonded to the base panels, wherein a positioning aid is arranged on the base panels, and/or the top panels, which is visible as the base panels are being laid out, or after they have been laid out, and which specifies the position of the top panels that can be arranged on the base panels, such that at least one offset is formed between the base panel and the top panel after they have been laid out, characterised in that, the offset dimension is greater than approx. 20 cm, and in that, in each case an adhesive layer is arranged on the base panel and on the top panel, wherein the adhesive of the two adhesive layers in each case comprises, or is formed from, a contact adhesive. the base panels contain gypsum, or are formed from gypsum, wherein the top panels contain wood, or a flexurally rigid wood-based material, or are formed from a flexurally rigid wood, or from a flexurally rigid wood-based material, and wherein the top panels can be adhesively bonded to the base panels, wherein a positioning aid is arranged on the base panels, and/or the top panels, which is visible as the base panels are being laid out, or after they have been laid out, and which specifies the position of the top panels that can be arranged on the base panels, such that at least one offset is formed between the base panel and the top panel after they have been laid out, characterised in that, the offset dimension is greater than approx. 20 cm, and in that, in each case an adhesive layer is arranged on the base panel and on the top panel, wherein the adhesive of the two adhesive layers in each case comprises, or is formed from, a contact adhesive.
A method for transmitting broadcast signals, the method comprising; encoding Physical Layer Pipe, PLP, data, and signaling information, wherein the encoding further comprises; Multi-Input Single-Output, MISO encoding first PLP data for MISO encoding; Multi-Input Multi-Output, MIMO encoding second PLP data for MIMO encoding; and MISO encoding the signaling information, wherein the signaling information includes MIMO type information of the second PLP data for MIMO encoding; building at least two signal frames by mapping the encoded PLP data and the encoded signaling information, wherein the encoded PLP data are mapped by a pair of consecutive cells; and modulating data in the built at least two signal frames by an Orthogonal Frequency Division Multiplexing, OFDM, method and transmitting at least two broadcast signals having the modulated data, wherein the pair of consecutive cells is mapped in one OFDM symbol, wherein at least one signal frame includes preamble symbols and data symbols, wherein the preamble symbols include signaling information for signaling the PLP data and the data symbols include the encoded PLP data.