mhurhangee/ep-ind-claims huggingface dataset:
Drive module for a vehicle, comprising: a housing; an electric machine accommodated in a first subregion of the housing; a gearbox accommodated in a second subregion of the housing, which is kinematically coupled to the electric machine, wherein the second subregion of the housing forms a lubricant reservoir into which the gearbox protrudes; a wheel shaft kinematically coupled to the gearbox, to be connected to a wheel of the vehicle, which extends in the second subregion of the housing and protrudes out of the second subregion of the housing onto an outer side of the housing; and a friction brake system having a braking device, which has a brake body fastened to the wheel shaft and a brake actuator for exerting a frictional force on the brake body; characterized in that the brake body is arranged in the second subregion of the housing and protrudes into the lubricant reservoir. a housing; an electric machine accommodated in a first subregion of the housing; a gearbox accommodated in a second subregion of the housing, which is kinematically coupled to the electric machine, wherein the second subregion of the housing forms a lubricant reservoir into which the gearbox protrudes; a wheel shaft kinematically coupled to the gearbox, to be connected to a wheel of the vehicle, which extends in the second subregion of the housing and protrudes out of the second subregion of the housing onto an outer side of the housing; and a friction brake system having a braking device, which has a brake body fastened to the wheel shaft and a brake actuator for exerting a frictional force on the brake body; characterized in that the brake body is arranged in the second subregion of the housing and protrudes into the lubricant reservoir.
A print module comprising a printhead cartridge releasably engaged with a supply module, wherein the supply module comprises: a body housing electronic circuitry for supplying power and data to a printhead of the printhead cartridge; and an ink inlet module and an ink outlet module positioned on opposite external sidewalls of the body and flanking the body, each of the ink inlet and ink outlet modules having a respective ink coupling (257, 259) engaged with complementary inlet and outlet couplings (261, 263) of the printhead cartridge. wherein the ink inlet and outlet modules are each slidably movable relative to the opposite external sidewalls of the body, towards and away from the printhead cartridge, between a coupled position in which the supply module is fluidically coupled to the printhead cartridge and a decoupled position in which the supply module is fluidically decoupled from the printhead cartridge. a body housing electronic circuitry for supplying power and data to a printhead of the printhead cartridge; and an ink inlet module and an ink outlet module positioned on opposite external sidewalls of the body and flanking the body, each of the ink inlet and ink outlet modules having a respective ink coupling (257, 259) engaged with complementary inlet and outlet couplings (261, 263) of the printhead cartridge. wherein the ink inlet and outlet modules are each slidably movable relative to the opposite external sidewalls of the body, towards and away from the printhead cartridge, between a coupled position in which the supply module is fluidically coupled to the printhead cartridge and a decoupled position in which the supply module is fluidically decoupled from the printhead cartridge.
A solid-state imaging device comprising: a first channel portion of a first conductivity-type between a first charge accumulation region of a second conductivity-type and a photodiode; and an overflow path of the second conductivity-type between an intermediate electrode of the second conductivity-type and said first charge accumulation region, wherein said intermediate electrode is electrically connected to a second charge accumulation section, said overflow path comprises a surface layer portion having a depth less than a depth of the first charge accumulation region and the intermediate electrode, wherein the overflow path transfers to the second accumulation region the photocharges exceeding the saturation charge amount of the first charge accumulation region. a first channel portion of a first conductivity-type between a first charge accumulation region of a second conductivity-type and a photodiode; and an overflow path of the second conductivity-type between an intermediate electrode of the second conductivity-type and said first charge accumulation region, wherein said intermediate electrode is electrically connected to a second charge accumulation section, said overflow path comprises a surface layer portion having a depth less than a depth of the first charge accumulation region and the intermediate electrode, wherein the overflow path transfers to the second accumulation region the photocharges exceeding the saturation charge amount of the first charge accumulation region.
Switchgear, wherein a fastening apparatus for attachment of the switchgear to a supporting rail is arranged on a housing of the switchgear, wherein the fastening apparatus has a stationary first fastening lug and a second fastening lug arranged opposite the first fastening lug, wherein the second fastening lug is configured to be stationary, wherein a spring is arranged in the region of the second fastening lug so as to be preloaded towards the first fastening lug, and wherein some regions of the spring protrude into a groove defined by the second fastening lug, characterised in that the spring is planar and is arranged inside the housing, apart from an actuation projection protruding into the groove through an actuation opening in the housing.
A topological superconducting qubit circuit (100; 300; 700; 800; 900; 1000; 1200) comprising: a plurality of physical superconducting qubits (102; 308; 704; 802; 902; 1002; 1202); and a plurality of coupling devices (104; 302; 702; 804; 904; 1010; 1204) interleaved between pairs of the physical superconducting qubits, wherein the coupling devices are tunable to operate the qubit circuit in a topological regime and as a series of individual physical qubits; and wherein the topological superconducting qubit circuit further comprises at least two superconducting loops (314, 316; 718, 720; 814, 816; 912, 914, 916; 1024, 1022; 1212, 1214) per coupling device, each one of the at least two loops being threadable by an external flux, wherein the coupling devices are tunable by selecting parameters for the external flux and applying the external flux with the selected parameters to one of the at least two superconducting loops, wherein the parameters are selected for the external flux such that |J/h| > 1, where J is a coupling device energy and h is a physical qubit energy; and wherein the qubit circuit operates in the topological regime when the external flux is applied to the at least one of the at least two loops to induce a phase shift in the coupling devices. a plurality of physical superconducting qubits (102; 308; 704; 802; 902; 1002; 1202); and a plurality of coupling devices (104; 302; 702; 804; 904; 1010; 1204) interleaved between pairs of the physical superconducting qubits, wherein the coupling devices are tunable to operate the qubit circuit in a topological regime and as a series of individual physical qubits; and wherein the topological superconducting qubit circuit further comprises at least two superconducting loops (314, 316; 718, 720; 814, 816; 912, 914, 916; 1024, 1022; 1212, 1214) per coupling device, each one of the at least two loops being threadable by an external flux, wherein the coupling devices are tunable by selecting parameters for the external flux and applying the external flux with the selected parameters to one of the at least two superconducting loops, wherein the parameters are selected for the external flux such that |J/h| > 1, where J is a coupling device energy and h is a physical qubit energy; and wherein the qubit circuit operates in the topological regime when the external flux is applied to the at least one of the at least two loops to induce a phase shift in the coupling devices.
A system for managing the feed of a plurality of yarns at constant tension and/or velocity to a textile machine of circular, loom or yarn preparation type, said yarns being fed to said machine by a plurality of feed devices, comprising an interface unit connected to said plurality of devices and arranged to set their operation, said interface unit receiving synchronization signals from the machine and measuring on the basis of these latter every portion of a production cycle or of the working advancement state of an article or of a production process, said production cycle being divided into different stages, the interface unit acting on each individual feed device on the basis of said stages such that each feed device feeds and/or controls the respective yarn with predefined tension and/or velocity individual to each of said stages, for each stage of the article production cycle corresponding to the manufacture of each part or zone of the article, said stage being defined and measured by the interface unit by means of said synchronization signals, values are set for at least one characteristic of the yarn fed by each feed device, said characteristic comprising at least one from tension, velocity, and yarn presence, said interface unit programming these values set on the feed devices, the values of each fed yarn characteristic being tabulated within the interface unit such that at each individual part or zone of the manufactured product, for each individual revolution of a machine cylindrical member and for each individual feed device, a set datum is scheduled with which to possibly compare the corresponding current value measured by the interface unit of the feed device, characterised in that the interface unit is capable of receiving and saving data relative to an operating program associated with productive modes of each individual portion of an article under production, said operating program rendering the interface unit suitable for making articles comprising parts or zones obtained with the same or different yarns but fed to the textile machine with different tension and/or velocity so as to obtain parts or zones with characteristics individual to the part or zone itself and different from those of the adjacent parts or zones of the article.
A cask liner for a nuclear fuel cask, the cask liner comprising: a hollow cylinder including a boron-containing composition, wherein the hollow cylinder has no longitudinal joints; characterized in that the cask liner further comprises a hollow cylindrical cladding including aluminum or an aluminum alloy; wherein the hollow cylindrical cladding is disposed on at least one of an inside surface and an outside surface of the hollow cylinder, the hollow cylindrical cladding has no longitudinal joints, and the hollow cylindrical cladding is formed together with the hollow cylinder by isostatic pressing. a hollow cylinder including a boron-containing composition, wherein the hollow cylinder has no longitudinal joints; characterized in that the cask liner further comprises a hollow cylindrical cladding including aluminum or an aluminum alloy; wherein the hollow cylindrical cladding is disposed on at least one of an inside surface and an outside surface of the hollow cylinder, the hollow cylindrical cladding has no longitudinal joints, and the hollow cylindrical cladding is formed together with the hollow cylinder by isostatic pressing.
A method for tamping sleepers of a track panel, supported in a ballast bed, by means of an evaluation device and a tamping unit, comprising two tamping tools opposite one another which, during tamping of the respective sleeper, are lowered into the ballast bed with vibrations being applied, and are moved towards each other with a squeezing movement while the track panel is held in a raised position, characterized in that the evaluation device is used to monitor a squeezing speed (v) of at least one tamping tool, that a current value of the squeezing speed (v) is compared with a limit value when a predefined squeezing time (t 1) or a predefined squeezing distance (s) is reached, and that a notification signal indicates whether the current value is above the limit value.
A digital microfluidics system for manipulating samples in liquid droplets within a gap between a first hydrophobic surface of a bottom layer and a second hydrophobic surface (17") of at least one disposable cartridge, the digital microfluidics system comprising: (a) a base unit with at least one cartridge accommodation site that is configured for taking up one disposable cartridge; (b) an electrode array located at said at least one cartridge accommodation site of the base unit, the electrode array being supported by a bottom substrate, substantially extending in a first plane and comprising a number of individual electrodes; and (c) a central control unit for controlling the selection of the individual electrodes of said electrode array and for providing these electrodes with individual voltage pulses for manipulating liquid droplets within the gap of said cartridge by electrowetting, wherein the digital microfluidics system further comprises: (d) a number of suction holes that penetrate the electrode array and/or the bottom substrate and that are located at the at least one cartridge accommodation site of the base unit; (e) a vacuum source for establishing an underpressure in at least one of an evacuation space and a vacuum space; and (f) a number of vacuum lines that link the suction holes and/or vacuum space to the vacuum source; characterized in that a gasket or a number of seals (39,39'), when a disposable cartridge is located at the at least one cartridge accommodation site, seal in said cartridge accommodation site the evacuation space, which is defined by a flexible bottom layer of a disposable cartridge, an uppermost surface of the cartridge accommodation site, and the gasket or the seals (39,39') which are supported by an insertion guide and closing means (25,30); and in that the underpressure in the evacuation space causes the flexible bottom layer of the disposable cartridge that is placed at the cartridge accommodation site to be attracted and spread over the uppermost surface of the cartridge accommodation site of the digital microfluidics system. (a) a base unit with at least one cartridge accommodation site that is configured for taking up one disposable cartridge; (b) an electrode array located at said at least one cartridge accommodation site of the base unit, the electrode array being supported by a bottom substrate, substantially extending in a first plane and comprising a number of individual electrodes; and (c) a central control unit for controlling the selection of the individual electrodes of said electrode array and for providing these electrodes with individual voltage pulses for manipulating liquid droplets within the gap of said cartridge by electrowetting, (d) a number of suction holes that penetrate the electrode array and/or the bottom substrate and that are located at the at least one cartridge accommodation site of the base unit; (e) a vacuum source for establishing an underpressure in at least one of an evacuation space and a vacuum space; and (f) a number of vacuum lines that link the suction holes and/or vacuum space to the vacuum source;
A bipolar snare device comprising an elongated tubular electrically insulating sheath having a proximal and a distal end, a pair of first and second elongated flexible electrically conductive wires (3, 4) with the wires (3, 4) disposed within the sheath and each having proximal and distal ends and having a length such that the wires (3, 4) can each extend from at least the distal end of the sheath, an electrically insulating connector disposed at the distal ends of the wires (3, 4) mechanically connecting the distal ends of the wires (3, 4) to form a loop projecting from the distal end of the sheath and with the wires (3, 4) electrically insulated from each other, electrical insulation disposed covering all but a selected portion of each of the elongated wires (3, 4) which form the loop, a handle for sliding the wires (3, 4) relative to the sheath to expand or contract the loop, and electrical connections for connecting the proximal ends of the wires (3, 4) to a bipolar electrosurgical generator, wherein the device also includes a guide member located within the sheath and forming compartments for each of the electrically conductive wires (3, 4), the guide member being rotatable within the sheath to prevent the electrically conductive wires (3, 4) from becoming twisted one about the other, the guide member being provided with an extension extending from the distal end of the guide member, wherein the extension is in the form of a planar partition being a tongue having a planar upper surface and a planar lower surface, the extension being capable of separating the electrically conductive wires (3, 4) as they exit the guide member, such that the first wire is facing the planar upper surface and the second wire is facing the planar lower surface.
A three-piece resealable can for acidic liquid, the can comprising: a cylindrical can body member that includes a screw portion at one end; and a can bottom member that contacts with the can body member so as to close an opening portion of other end of the can body member, wherein the can body member includes a cylindrical first steel sheet, a Ni plating that is formed on an inner circumferential surface of the first steel sheet, a polyester film that is formed so as to be disposed on an outermost surface of an inner circumference of the can body member, and a Zr-containing film that is formed between the first steel sheet and the polyester film, wherein an amount of the Ni plating is 10 to 1000 mg/m 2, the Zr-containing film contains Zr compounds, and an amount of the Zr-containing film is 2 to 40 mg/m 2 expressed in terms of Zr metal, wherein the can bottom member includes a second steel sheet, and an Sn plating that is formed on the can body member side of the can bottom member, the Sn plating being on or above the second steel sheet, the Sn plating includes an Sn single metal plating in an amount of 2 to 15 g/m 2, and the can body member and the can bottom member contact electrically. a cylindrical can body member that includes a screw portion at one end; and a can bottom member that contacts with the can body member so as to close an opening portion of other end of the can body member, wherein the can body member includes a cylindrical first steel sheet, a Ni plating that is formed on an inner circumferential surface of the first steel sheet, a polyester film that is formed so as to be disposed on an outermost surface of an inner circumference of the can body member, and a Zr-containing film that is formed between the first steel sheet and the polyester film, wherein an amount of the Ni plating is 10 to 1000 mg/m 2, the Zr-containing film contains Zr compounds, and an amount of the Zr-containing film is 2 to 40 mg/m 2 expressed in terms of Zr metal, wherein the can bottom member includes a second steel sheet, and an Sn plating that is formed on the can body member side of the can bottom member, the Sn plating being on or above the second steel sheet, the Sn plating includes an Sn single metal plating in an amount of 2 to 15 g/m 2, and the can body member and the can bottom member contact electrically.
A compound of formula I wherein: Y is N or CH; Q is NH or O; A is chosen from direct bond, (C 1 -C 20)hydrocarbon, (C 1 -C 20)oxaalkyl and (C 1 -C 20)azaalkyl; R 1 is chosen from hydrogen, -C(=NH)NH 2, -C(=NH)NH(C 1 -C 10)hydrocarbon, fluoro(C 1 -C 6)hydrocarbon, and -CH(NH 2)COOH; R 2 is R 3, or when Q is NH, R 2 may additionally be -COR 3 or -COOR 3; R 3 is chosen from H, (C 1 -C 20) hydrocarbon, substituted aryl, heteroaryl and substituted heteroaryl; m is 0, 1 or 2; and n is 1, 2 or 3. Y is N or CH; Q is NH or O; A is chosen from direct bond, (C 1 -C 20)hydrocarbon, (C 1 -C 20)oxaalkyl and (C 1 -C 20)azaalkyl; R 1 is chosen from hydrogen, -C(=NH)NH 2, -C(=NH)NH(C 1 -C 10)hydrocarbon, fluoro(C 1 -C 6)hydrocarbon, and -CH(NH 2)COOH; R 2 is R 3, or when Q is NH, R 2 may additionally be -COR 3 or -COOR 3; R 3 is chosen from H, (C 1 -C 20) hydrocarbon, substituted aryl, heteroaryl and substituted heteroaryl; m is 0, 1 or 2; and n is 1, 2 or 3.
An optical arrangement for an X-ray system for determining a patient position and/or a patient rotation of a patient to be X-rayed by the X-ray system, the optical arrangement comprising a laser source and a detector vertically spaced apart from the laser source, wherein the laser source is configured for emitting a horizontal laser onto the patient, wherein the detector is configured for detecting a course of the laser line emitted onto the patient, an analyzing unit configured for determining the patient position and/or the patient rotation of the patient, based on an analysis of the detected course of the laser line, wherein the analyzing unit is configured for validating whether the determined patient position and/or patient rotation of the patient corresponds to a predetermined reference parameter, wherein the analyzing unit is configured for generating a feedback signal based on a result of the validation, characterized in that in the optical arrangement spatial coordinates of a vertical centerline of an X-ray sensor of the X-ray system are stored, wherein the analyzing unit is configured for comparing the determined patient position and/or patient rotation with the stored spatial coordinates, and wherein the vertical centerline of the X-ray sensor is the reference parameter. a laser source and a detector vertically spaced apart from the laser source, wherein the laser source is configured for emitting a horizontal laser onto the patient, wherein the detector is configured for detecting a course of the laser line emitted onto the patient, an analyzing unit configured for determining the patient position and/or the patient rotation of the patient, based on an analysis of the detected course of the laser line, wherein the analyzing unit is configured for validating whether the determined patient position and/or patient rotation of the patient corresponds to a predetermined reference parameter, wherein the analyzing unit is configured for generating a feedback signal based on a result of the validation, characterized in that in the optical arrangement spatial coordinates of a vertical centerline of an X-ray sensor of the X-ray system are stored, wherein the analyzing unit is configured for comparing the determined patient position and/or patient rotation with the stored spatial coordinates, and wherein the vertical centerline of the X-ray sensor is the reference parameter.
A surgical-operation-table comprising: a table for laying a patient thereon, motion mechanism sections (35, 20, 25, 70, 60, 65 and 80) adapted to slide, crosswise turn, lengthwise turn and elevate the table, and a base that supports the table via the motion mechanism sections, the surgical-operation-table comprising: a position holding device adapted to slide the table in an opposite direction from a crosswise turning direction of the table at a time of a crosswise turning motion of the table whereby a position of a part of the patient that is laid on the table is prevented from being moved. a table for laying a patient thereon, motion mechanism sections (35, 20, 25, 70, 60, 65 and 80) adapted to slide, crosswise turn, lengthwise turn and elevate the table, and a base that supports the table via the motion mechanism sections,