mhurhangee/ep-ind-claims huggingface dataset:
A wiper arm, comprising: an arm head; a shank, comprising: a pair of side walls (12a, 12b) connected to a tip end of the arm head and facing each other; and a top wall connected to an upper end part of each of the side walls (12a, 12b); a tube (20, 21) for supplying a washer liquid; and a bottom cover joined to a lower end part of each of the side walls (12a, 12b) and facing the top wall, the wiper arm being characterised in that the bottom cover comprises a body part in a plate shape and a wall part provided on the body part and protruding toward the top wall, the tube (20, 21) is disposed between the body part and the wall part and the shank, and comprises a first flat surface (20ba, 21ba) which is in contact with the body part, a second flat surface (20ca, 21ca) which is in contact with the wall part, and a shank side surface (20ea, 21ea) which is connected to the first flat surface (20ba, 21ba) and the second flat surface (20ca, 21ca), and an ejection hole (20a, 21a) for ejecting the washer liquid is opened on the shank side surface (20ea, 21ea) of the tube (20, 21). an arm head; a shank, comprising: a pair of side walls (12a, 12b) connected to a tip end of the arm head and facing each other; and a top wall connected to an upper end part of each of the side walls (12a, 12b); a pair of side walls (12a, 12b) connected to a tip end of the arm head and facing each other; and a top wall connected to an upper end part of each of the side walls (12a, 12b); a tube (20, 21) for supplying a washer liquid; and a bottom cover joined to a lower end part of each of the side walls (12a, 12b) and facing the top wall, the wiper arm being characterised in that the bottom cover comprises a body part in a plate shape and a wall part provided on the body part and protruding toward the top wall, the tube (20, 21) is disposed between the body part and the wall part and the shank, and comprises a first flat surface (20ba, 21ba) which is in contact with the body part, a second flat surface (20ca, 21ca) which is in contact with the wall part, and a shank side surface (20ea, 21ea) which is connected to the first flat surface (20ba, 21ba) and the second flat surface (20ca, 21ca), and an ejection hole (20a, 21a) for ejecting the washer liquid is opened on the shank side surface (20ea, 21ea) of the tube (20, 21).
An apparatus for treating engine exhaust gas, comprising: an exhaust conduit for leading exhaust gases from an engine to an outlet; a particulate filter connected in the exhaust conduit to receive exhaust gas; a heat source connected in the exhaust conduit upstream of the particulate filter; and, a heat exchanger connected to receive exhaust gas exiting the particulate filter and arranged to heat a portion of the exhaust conduit upstream of the heat source and particulate filter, wherein the heat exchanger comprises a housing having a first inlet to receive exhaust gas from the engine connected by a first passage to a first outlet connected upstream of the heat source, and having second inlet to receive exhaust gas exiting the particulate filter connected by a second passage to a second outlet connected to the exhaust conduit, the heat exchanger configured to put the exhaust gas entering the second inlet in heat transfer contact with gas entering the first conduit, the heat exchanger being disposed upstream of and spaced from the heat source and particulate filter; and characterized by further comprising a bypass conduit connected in the exhaust conduit upstream of the first inlet of the heat exchanger and downstream of the first outlet of the heat exchanger, the bypass conduit having a valve controlled for selectively directing exhaust gas into the heat exchanger or into the bypass conduit to go around the heat exchanger. an exhaust conduit for leading exhaust gases from an engine to an outlet; a particulate filter connected in the exhaust conduit to receive exhaust gas; a heat source connected in the exhaust conduit upstream of the particulate filter; and, a heat exchanger connected to receive exhaust gas exiting the particulate filter and arranged to heat a portion of the exhaust conduit upstream of the heat source and particulate filter,
Odour seal element for installation in a drain, in particular in the drain of a waterless urinal comprising - a collecting container for collecting wastewater and having an inflow opening and an outlet opening, and - a first pipe section adjoining the outlet opening, and - a second pipe section downstream of the first pipe section and having a drain opening for connection to a wastewater connection, - an overflow edge formed between the first pipe section and the second pipe section, which is formed directly at the end region of a wall bounding the first pipe section and then at the end region of the wall, and wherein the first pipe section together with the collecting container forms a siphon when liquid is in the collecting container and is up to the overflow edge in the first pipe section, characterised in that the overflow edge lies on a liquid mirror plane, wherein the end region of the wall on which the overflow edge is formed, and the liquid mirror plane are at an angle (β') to each other between 30° and 55°, in particular at an angle (β') to each other between 35° and 50°, and in that the first pipe section over its entire length is at an angle (β') between 30° and 55° to the liquid mirror plane level. - a collecting container for collecting wastewater and having an inflow opening and an outlet opening, and - a first pipe section adjoining the outlet opening, and - a second pipe section downstream of the first pipe section and having a drain opening for connection to a wastewater connection, - an overflow edge formed between the first pipe section and the second pipe section, which is formed directly at the end region of a wall bounding the first pipe section and then at the end region of the wall, and wherein the first pipe section together with the collecting container forms a siphon when liquid is in the collecting container and is up to the overflow edge in the first pipe section,
Method for managing virtualized software network functions in a communication network, the virtualized software network functions being implemented in an NFV architecture, NFV being the acronym of network function virtualization, said method comprising: - a step in which a control device (VNF-CTRL) receives a data model describing the functionality of a virtualized software network function; - a step in which said control device (VNF-CTRL) generates, on the basis of said received data model, a configuration interface defining said functionality, said configuration interface being a Java class and being intended to be used to invoke said virtualized software network function; - a step in which the control device (VNF-CTRL) generates a first software agent (VNF-LP) that implements said generated configuration interface, and a step of installing said first software agent (VNF-LP) in the control device (VNF-CTRL), said first agent being configured to allow, when it is invoked by said configuration interface, a virtual machine (VFNC) implementing said virtualized software network function to be called. - a step in which a control device (VNF-CTRL) receives a data model describing the functionality of a virtualized software network function; - a step in which said control device (VNF-CTRL) generates, on the basis of said received data model, a configuration interface defining said functionality, said configuration interface being a Java class and being intended to be used to invoke said virtualized software network function; - a step in which the control device (VNF-CTRL) generates a first software agent (VNF-LP) that implements said generated configuration interface, and a step of installing said first software agent (VNF-LP) in the control device (VNF-CTRL), said first agent being configured to allow, when it is invoked by said configuration interface, a virtual machine (VFNC) implementing said virtualized software network function to be called.
A gas-assisted scraping tool (10, 110, 210) having a housing (12, 112) with a blade support (14, 114) and a blade (20, 120) attached to and extending forwardly of the blade support, the blade support having a cavity (16, 116) that is connectable to a source of a pressurized gas, a diffuser (22, 122) is attached to the blade support to space the blade from the cavity, the diffuser is shaped to direct a stream of the pressurized gas from within the cavity lengthwise along the blade and distribute the pressurized gas transversely across a width of the blade, whereby material loosened by the blade is blown away from an end of the blade by the stream of the pressurized gas; wherein the blade support includes a rear wall (23, 123), a pair of opposing side walls (24, 26, 124, 126), a top wall (28, 128), and a front lip (30, 130), which together with the diffuser define the cavity (16, 116); characterized in that the diffuser (22, 122) includes a plurality of spaced teeth (46, 146) extending across a forward edge thereof, forming a plurality of the gaps (50, 150, 234) therebetween, and the plurality of spaced teeth (46, 146) are positioned between the blade (20, 120) and the front lip (30, 130), such that the plurality of gaps (50, 150, 234), bounded by the blade and the front lip, form a plurality of channels (52, 152) from the cavity spaced across the width of the blade that direct the stream of the pressurized gas from the cavity (16, 116) lengthwise along the blade.
Method of melting glass heated in a furnace by means of burners, in which method at least 65%, and preferably at least 80%, of the combustion energy is produced by oxycombustion, the combustion gases leaving the furnace being passed through a first heat exchanger, in which air circulates, the air and the combustion gases being in distinct and separate circuits, the air heated in this first exchanger being passed through at least a second exchanger intended to preheat the oxygen-based oxidant, the oxidant and the air circulating in distinct and separate circuits, characterized in that the air leaving this second exchanger is passed through a third exchanger for the contactless preheating of at least some of the vitrifiable charge comprising raw materials and possibly some cullet.
Connection device for fluid circuits, the device being arranged to hydraulically connect two adjacent circuit sections (C, C') and, if necessary, to allow disconnection of the two circuit sections (C, C') under load without causing fluid losses from the circuit, the device comprising two thermal expansion valves (12, 12') releasably connected directly to each other, each valve (12, 12') being configured to be mounted to an end of a respective circuit section (C, C') and being shiftable between an open position and a closed position, in which it allows and prevents fluid flow through the device, respectively, depending on the fluid temperature, wherein the two valves (12, 12') comprise each a tubular casing (14, 14') which is configured to be connected at a first end thereof to a respective circuit section (C, C') and at the opposite end to the casing (14', 14) of the other valve (12', 12) and which has, at this opposite end, a valve seat (20, 20') delimiting a through opening (22, 22'), a closure member (24, 24') movable relative to the valve seat (20, 20') to control fluid flow through the through opening (22, 22'), and temperature-sensitive control means (26, 26') for controlling movement of the closure member (24, 24') to close or open the through opening (22, 22') depending on the fluid temperature.
A method for determining actuator actuation time, comprising: evaluating an analog electrical current waveform, wherein the analog electrical current waveform is in hysteresis and varies on a periodic interval across a range of values between a predetermined low current level and a predetermined high current level higher than the low current level; determining a corresponding Boolean waveform based on the evaluated analog electrical current waveform; determining a collection of one or more first durations based on one or more on times identified from the Boolean waveform; determining a collection of one or more second durations based on one or more off times identified from the Boolean waveform; comparing the first durations and the second durations; determining, based on the comparing, an event wherein determining the event comprises comparing ones of the first durations with timewise corresponding ones of the second durations to identify a minimum difference value, and identifying a timewise location of the minimum difference value as the event; identifying a time at which the event occurred; and providing the time as a completion time. evaluating an analog electrical current waveform, wherein the analog electrical current waveform is in hysteresis and varies on a periodic interval across a range of values between a predetermined low current level and a predetermined high current level higher than the low current level; determining a corresponding Boolean waveform based on the evaluated analog electrical current waveform; determining a collection of one or more first durations based on one or more on times identified from the Boolean waveform; determining a collection of one or more second durations based on one or more off times identified from the Boolean waveform; comparing the first durations and the second durations; determining, based on the comparing, an event wherein determining the event comprises comparing ones of the first durations with timewise corresponding ones of the second durations to identify a minimum difference value, and identifying a timewise location of the minimum difference value as the event; identifying a time at which the event occurred; and providing the time as a completion time.
Method of producing an electronic module with at least one electronic component and one carrier, with the following steps: (a) a structure is provided on the carrier, the structure being suitable for aligning an electronic component on it, so that the electronic component can take a desired target position relative to the structure, (b) this structure is coated with a material which is an adhesive, which at least partly remains between the structure and the component, or is a solder, which includes flux and is melted on to form a liquid meniscus, the liquid meniscus being suitable for receiving the electronic component at least partially, (c) a stock of multiple electronic components is provided at a delivery point for the electronic components, (d) the carrier, with the structure, is moved at least to nearby opposite the delivery point, (e) at the delivery point one of the electronic components is delivered without contact, while the structure on the carrier is near the delivery point, so that after a phase of free movement the electronic component at least partly touches the material, (f) the carrier, with the structure, is moved to a downstream processing point, while the electronic component aligns itself to the structure on the liquid meniscus of the material, to take its target position, and (g) the electronic component and the carrier are connected and fixed via the structure on the carrier by the material. (a) a structure is provided on the carrier, the structure being suitable for aligning an electronic component on it, so that the electronic component can take a desired target position relative to the structure, (b) this structure is coated with a material which is an adhesive, which at least partly remains between the structure and the component, or is a solder, which includes flux and is melted on to form a liquid meniscus, the liquid meniscus being suitable for receiving the electronic component at least partially, (c) a stock of multiple electronic components is provided at a delivery point for the electronic components, (d) the carrier, with the structure, is moved at least to nearby opposite the delivery point, (e) at the delivery point one of the electronic components is delivered without contact, while the structure on the carrier is near the delivery point, so that after a phase of free movement the electronic component at least partly touches the material, (f) the carrier, with the structure, is moved to a downstream processing point, while the electronic component aligns itself to the structure on the liquid meniscus of the material, to take its target position, and (g) the electronic component and the carrier are connected and fixed via the structure on the carrier by the material.
Apparatus for exercising the muscles, comprising a power arm, which is provided at one end area with actuating elements and which, with the other end area, is pivotable about a first hinge, which is disposed on a holding element, to which power arm the one end area of a spring element is linked in an articulated way at a first articulation point, the other end area of which spring element is linked in an articulated way at a second articulation point on the holding element, the first articulation point being designed adjustable, so that the spacing of the first articulation point to the first hinge is able to be set, characterized in that - the holding element is connected to a support via a rotary joint, and is rotatable about this support about a rotational axis in one plane and is lockable in each case in the correspondingly set rotation position, and - the first hinge between the power arm and the holding element has a pivot axis which runs at a right angle to the rotational axis. - the holding element is connected to a support via a rotary joint, and is rotatable about this support about a rotational axis in one plane and is lockable in each case in the correspondingly set rotation position, and - the first hinge between the power arm and the holding element has a pivot axis which runs at a right angle to the rotational axis.
A screw channel directing device for a dental superstructure, comprising a screw channel part and an implant cooperating part (52A, B), said screw channel part comprising a screw member seat with a screw hole in the proximal end, wherein the proximal end of the screw channel part is bowl shaped, such that the inner bottom surface has a concave shape and its outer bottom surface has a convex shape, and wherein the screw hole of the screw member seat is a long hole, and wherein said implant cooperating part (52A, B) comprises a collar-shaped lower implant cooperating part to be connected to a dental implant and a collar-shaped upper implant cooperating part, said lower implant cooperating part having a distal concave seat and said upper implant cooperating part having a proximal convex bottom surface with a radius corresponding to the radius of the concave seat of the lower implant cooperating part to form a first ball joint (57, 58) and said upper implant cooperating part having a distal concave seat with a radius corresponding to the radius of the outer bottom surface of the screw channel part to form a second ball joint (55, 56), the two ball joints having the effect that the screw channel part may be tilted/angled and transferred sideways in relation to a central axis of the lower implant cooperation part.
An automation system for use in an in vitro diagnostics setting comprising: an automation track having at least two sidewalls, wherein a horizontal surface extending therebetween, wherein the at least two sidewalls define interior and exterior surfaces, and magnetic shielding material is provided at one or more of the interior surface, the exterior surface, or integrated within the sidewall itself, and wherein the horizontal surface is devoid of magnetic shielding, and wherein the horizontal surface is a stainless steel plate. an automation track having at least two sidewalls, wherein a horizontal surface extending therebetween, wherein the at least two sidewalls define interior and exterior surfaces, and magnetic shielding material is provided at one or more of the interior surface, the exterior surface, or integrated within the sidewall itself, and wherein the horizontal surface is devoid of magnetic shielding, and wherein the horizontal surface is a stainless steel plate.
A turbine arrangement for a gas turbine engine, the arrangement comprising: a turbine shaft; an axial array of turbine rotors having a first axial end defined by a first of the turbine rotors, and having a second axial end; an interstage spacer between each adjacent pair of turbine rotors, each spacer arranged to transmit drive; a measurement system arranged to measure rotational speed of the turbine arrangement, the measurement system positioned at the second axial end of the array; and a drive arm directly coupling the turbine shaft and the first axial end only, wherein no turbine rotors driven by the turbine shaft are located axially forward of the drive arm. a turbine shaft; an axial array of turbine rotors having a first axial end defined by a first of the turbine rotors, and having a second axial end; an interstage spacer between each adjacent pair of turbine rotors, each spacer arranged to transmit drive; a measurement system arranged to measure rotational speed of the turbine arrangement, the measurement system positioned at the second axial end of the array; and a drive arm directly coupling the turbine shaft and the first axial end only, wherein no turbine rotors driven by the turbine shaft are located axially forward of the drive arm.
A method for measuring a higher-order mode cutoff wavelength of an optical fiber, comprising: a first step of joining a multimode fiber to a first end of an optical fiber under test whose higher-order mode cutoff wavelength is to be measured, allowing light to propagate from the multimode fiber to the optical fiber under test, measuring an intensity of light exiting from a second end of the optical fiber under test after propagating through the optical fiber under test, and determining a first power spectrum on the basis of the measured intensity of light; a second step of joining the multimode fiber to a first end of a reference fiber having bending loss higher than that of the optical fiber under test in a predetermined wavelength range, allowing light to propagate from the multimode fiber to the reference fiber, measuring an intensity of light exiting from a second end of the reference fiber after propagating through the reference fiber, and determining a second power spectrum on the basis of the measured intensity of light; a third step of determining a difference spectrum by subtracting the second power spectrum from the first power spectrum; and a fourth step of determining a higher-order mode cutoff wavelength of the optical fiber under test on the basis of a shape of the difference spectrum. a first step of joining a multimode fiber to a first end of an optical fiber under test whose higher-order mode cutoff wavelength is to be measured, allowing light to propagate from the multimode fiber to the optical fiber under test, measuring an intensity of light exiting from a second end of the optical fiber under test after propagating through the optical fiber under test, and determining a first power spectrum on the basis of the measured intensity of light; a second step of joining the multimode fiber to a first end of a reference fiber having bending loss higher than that of the optical fiber under test in a predetermined wavelength range, allowing light to propagate from the multimode fiber to the reference fiber, measuring an intensity of light exiting from a second end of the reference fiber after propagating through the reference fiber, and determining a second power spectrum on the basis of the measured intensity of light; a third step of determining a difference spectrum by subtracting the second power spectrum from the first power spectrum; and a fourth step of determining a higher-order mode cutoff wavelength of the optical fiber under test on the basis of a shape of the difference spectrum.
Use of an active compound that inhibits the mitochondrial breathing chain at the level of the b/c1 complex for combating Esca, wherein the active compound is a strobilurin compound selected from azoxystrobin and pyraclostrobin.