mhurhangee/ep-ind-claims huggingface dataset:
A pressure control device for a milking machine, comprising a housing, a vacuum inlet, and at least one control circuit (3a, 3b) comprising a main vacuum passage extending through the housing from the vacuum inlet to an outlet, and including a main valve configured to take one of an open position, in which the main vacuum passage is open, and a closed position, in which the main vacuum passage is closed, a pilot passage extending from the main vacuum passage and including a pilot valve body configured to take one of an open pilot position, in which the pilot passage is open, and a closed pilot position, in which the pilot passage is closed, wherein the pilot passage in the open pilot position acts on the main valve to move the main valve to one of the open position and the closed position, and in the closed pilot position permits the main valve to move to the other of the open position and the closed position, a solenoid controlling the pilot valve body of the pilot passage, and a holding member receiving the solenoid and the pilot valve body of the pilot passage, wherein the pilot passage extends through an opening in the holding member and wherein the pilot valve body is movably provided between the solenoid and the holding member to abut a seat surface around the opening in the closed pilot position, wherein the pressure control device further comprises a cover enclosing the solenoid and the holding member, characterised in that the holding member is attached to the housing by means of a first bayonet coupling (16, 17) wherein the main valve is provided in the housing beneath the holding member, and comprises a membrane which is provided between the housing and the holding member said main valve comprising a gripping member extending from the membrane, wherein the cover comprises an electric connector which is fixed to the cover and brought to electric contact with connection elements (11, 12) of the solenoid when the cover is attached to the housing in order to permit supply of electric control signals to the solenoid and wherein the electric connector is configured to break the electric contact with the connection elements (11, 12) when the cover is removed from the housing
A method for producing a photovoltaic cell with interdigitated back contacts, characterized in that it comprises: - providing a doped silicon substrate; - forming on the back surface of said substrate, a semiconductor layer doped with a first species of dopants; - forming, on said doped semiconductor layer, a so-called doping layer comprising a second species of dopants of opposite electric type to the first species; - forming in the doped semiconductor layer, at least one doped region of opposite type to the first species via selective irradiation of at least one region of the doping layer using a luminous flux whose fluence is higher than a threshold (S 2), called "doping inversion threshold", beyond which the dopants of the irradiated region of the doping layer diffuse into the region underlying the doped semiconductor layer so as to exceed the concentration of the first dopant species; - forming in the doped semiconductor layer at least one electrically insulating region via selective irradiation of at least one region of the doping layer using luminous flux having fluence within a range ([S 1 -S 2]) called "doping compensation range", that is lower than said doping inversion threshold (S 2) and at which the dopants of the irradiated region of the doping layer diffuse into the region underlying the doped semiconductor layer to obtain equilibrium concentration of the two species of dopants in said region, said electrically insulating region being arranged so as to separate a region of layer doped with the first species from at least one region having doping of opposite type to the first species. - providing a doped silicon substrate; - forming on the back surface of said substrate, a semiconductor layer doped with a first species of dopants; - forming, on said doped semiconductor layer, a so-called doping layer comprising a second species of dopants of opposite electric type to the first species; - forming in the doped semiconductor layer, at least one doped region of opposite type to the first species via selective irradiation of at least one region of the doping layer using a luminous flux whose fluence is higher than a threshold (S 2), called "doping inversion threshold", beyond which the dopants of the irradiated region of the doping layer diffuse into the region underlying the doped semiconductor layer so as to exceed the concentration of the first dopant species; - forming in the doped semiconductor layer at least one electrically insulating region via selective irradiation of at least one region of the doping layer using luminous flux having fluence within a range ([S 1 -S 2]) called "doping compensation range", that is lower than said doping inversion threshold (S 2) and at which the dopants of the irradiated region of the doping layer diffuse into the region underlying the doped semiconductor layer to obtain equilibrium concentration of the two species of dopants in said region, said electrically insulating region being arranged so as to separate a region of layer doped with the first species from at least one region having doping of opposite type to the first species.
Bellows accumulator, consisting of at least one accumulator housing and having a separating bellows with a plurality of bellows folds, which is arranged to be movable in the accumulator housing, said separating bellows separating two media chambers (8, 22) from each other and being fixed with its stationary open end to the accumulator housing by means of the fixing device and having at its movable other end a closure part with a guide device with which it is guided in the accumulator housing, wherein, in addition to the guide device, the closure part comprises a sealing device which, at least in the one extended end position of the separating bellows, separates a fluid chamber, in which the bellows folds are arranged in the accumulator housing, from a fluid connection point in the accumulator housing and, at least in some of the other working positions, releases the fluid connection thereto, characterised in that the closure part at its end directed towards the fluid connection comprises a flattened dome, the convex outer contour of which in the region of the fluid connection follows the inner contour of the accumulator housing and is brought at least partially into contact therewith in the one end position.
A flap bearing system for a flap shaft in a motor vehicle, comprising a radial bearing in which the flap shaft having a flap body arranged thereon is arranged in a rotatable manner, a channel housing, the flow cross-section of which can be controlled by rotating the flap shaft with the flap body, a bearing housing that surrounds the radial bearing in a radial manner, a bearing housing cover that closes the bearing housing in an axial manner and has an opening through which a flap shaft end protrudes from the bearing housing, and a sleeve that surrounds the bearing housing in a radial manner at least in sections, characterized in that a circumferential groove is formed at the outer circumference at the section of the bearing housing that is surrounded by the sleeve, wherein the flap shaft end protruding from the bearing housing is arranged geodetically at the same height or above the opposite flap shaft end.
Offshore wind farm with a plurality of floating single-point mooring wind turbines arranged within parquetised sub-areas and a collection station connected to the floating single-point mooring wind turbines, which is connected to a power grid by means of a transmission line characterized in that at least a subset of the floating single-point-mooring wind turbines is connected directly to the collecting station, forming a star-shaped power grid, in each case with its own submarine cable, the sum of the length of the direct connections between the floating single-point-mooring wind turbines and the collection station being less than the length of an imaginary line connecting the collection station and the floating single-point-mooring wind turbines to one another.
Under-run protector mounted on a vehicle body frame via a mounting bracket, comprising a hollow extrusion having a rectangular cross section, wherein the hollow extrusion includes at least two substantially horizontal surfaces (12, 12 A, 12 B), whereas the hollow extrusion is split by a center line region in a first side adjacent the body frame and a second side opposite the body frame, whereby a plate thickness of the at least two substantially horizontal surfaces (12 A) on one side is different from a plate thickness of the at least two substantially horizontal surfaces (12 B) on the opposite side, characterized in that the plate thickness of the at least two substantially horizontal surfaces on the vehicle body frame side is larger than the plate thickness of the at least two substantially horizontal surfaces opposite the vehicle body frame, and the substantially horizontal surfaces having the larger plate thickness and forming an outer shape of the under-run protector include a rib projecting outward.
An all-in-one machine, comprising: a main board with an Android system; a display screen and an internal PC module respectively connected to the main board; a USB selecting switch connected to a GPIO port of the main board and to a USB port of the internal PC module and controlled by the main board through the GPIO port; and a touch frame having a first data port and a second data port, wherein the touch frame is connected to the USB selecting switch through the first data port, and wherein the touch frame is connected to the main board through the second data port; wherein the main board is configured to detect a currently connected channel, and if the currently connected channel is an internal PC module channel, the main board is configured to control the USB selecting switch to connect the first data port of the touch frame to the USB port of the internal PC module so that the internal PC module receives touch data through the first data port from the touch frame, and the main board receives the touch data on the display screen through the second data port of the touch frame; and the main board is configured to determine whether the touch data are generated by a touch action within a preset area on the display screen, and if the touch data are generated by the touch action within the preset area on the display screen, the main board is configured to start a setup menu, for volume setup, display setup or channel switching, for displaying on the display screen. a main board with an Android system; a display screen and an internal PC module respectively connected to the main board; a USB selecting switch connected to a GPIO port of the main board and to a USB port of the internal PC module and controlled by the main board through the GPIO port; and a touch frame having a first data port and a second data port, wherein the touch frame is connected to the USB selecting switch through the first data port, and wherein the touch frame is connected to the main board through the second data port; wherein the main board is configured to detect a currently connected channel, and if the currently connected channel is an internal PC module channel, the main board is configured to control the USB selecting switch to connect the first data port of the touch frame to the USB port of the internal PC module so that the internal PC module receives touch data through the first data port from the touch frame, and the main board receives the touch data on the display screen through the second data port of the touch frame; and the main board is configured to determine whether the touch data are generated by a touch action within a preset area on the display screen, and if the touch data are generated by the touch action within the preset area on the display screen, the main board is configured to start a setup menu, for volume setup, display setup or channel switching, for displaying on the display screen.
An inverter module for use in an inverter-integrated motor, the inverter module being arranged at an axial end portion of a motor, the inverter module comprising trapezoidal power modules, each of which has a single-phase inverter circuit mounted thereon, each of the trapezoidal power modules including an electrical connection terminal for a power supply arranged on a short side thereof and an electrical connection terminal for the motor arranged on a long side thereof, wherein a polyphase inverter circuit is constructed by arranging a plurality of the trapezoidal power modules in an annular pattern so that the long side of the each of the plurality of the power modules faces toward an outer periphery, wherein the power modules comprise: control signal input/output terminals arranged on the long side; and a switching element mounted closer to the long side in a direction in which a control signal input pad is located in proximity to the long side, and a current reflux element mounted closer to the short side, the current reflux element being electrically connected in parallel to the switching element, characterized in that the electrical connection terminal for the motor and the control signal input/output terminals are arranged in order of the electrical connection terminal for the motor, a lower arm switching element-use control signal input terminal, a lower arm switching element-use high potential-side potential sense terminal, and an upper arm switching element-use control signal input terminal, and an upper arm switching element-use high potential-side potential sense terminal. the inverter module being arranged at an axial end portion of a motor, the inverter module comprising trapezoidal power modules, each of which has a single-phase inverter circuit mounted thereon, each of the trapezoidal power modules including an electrical connection terminal for a power supply arranged on a short side thereof and an electrical connection terminal for the motor arranged on a long side thereof, wherein a polyphase inverter circuit is constructed by arranging a plurality of the trapezoidal power modules in an annular pattern so that the long side of the each of the plurality of the power modules faces toward an outer periphery, control signal input/output terminals arranged on the long side; and a switching element mounted closer to the long side in a direction in which a control signal input pad is located in proximity to the long side, and a current reflux element mounted closer to the short side, the current reflux element being electrically connected in parallel to the switching element,
Plate stack, which is arranged in a switching gas cooling apparatus of an electrical switching device, comprising identical plates made from a material having high heat conductivity, the plates being stacked with a uniform plate spacing, wherein the plates are each provided with spacer elements (30, 31) corresponding to the plate spacing, wherein the plates are arranged in the stack such that their orientation changes successively and characterized in that the spacer elements (30, 31) are in the form of deepened stampings in plates made from metallic material.
A battery, comprising: an electrode assembly, a first tab, a second tab, a cap plate assembly, a first electrode terminal, a second electrode terminal and a shaping plate, wherein the electrode assembly comprises a first electrode plate, a second electrode plate and a separator arranged between the first electrode plate and the second electrode plate; each of the first electrode terminal and the second electrode terminal is arranged on the cap plate assembly; the first electrode terminal is connected to the first electrode plate through the first tab; the second electrode terminal is connected to the second electrode plate through the second tab; the shaping plate is arranged between the cap plate assembly and the electrode assembly, and each of the first tab and the second tab is bent around the shaping plate; wherein the cap plate assembly comprises a cap plate and an insulation plate connected to the cap plate; the insulation plate is arranged between the cap plate and the shaping plate; the shaping plate is fixed and thermally fused to the insulation plate. the electrode assembly comprises a first electrode plate, a second electrode plate and a separator arranged between the first electrode plate and the second electrode plate; each of the first electrode terminal and the second electrode terminal is arranged on the cap plate assembly; the first electrode terminal is connected to the first electrode plate through the first tab; the second electrode terminal is connected to the second electrode plate through the second tab; the shaping plate is arranged between the cap plate assembly and the electrode assembly, and each of the first tab and the second tab is bent around the shaping plate; wherein the cap plate assembly comprises a cap plate and an insulation plate connected to the cap plate; the insulation plate is arranged between the cap plate and the shaping plate; the shaping plate is fixed and thermally fused to the insulation plate.
A fitting for encasing an extended length of pipe comprising a plurality of segments (11, 12) jointed end-to-end to axially extend over the length of pipe, each of the segments (11, 12) being formed by a pair of mating semi-cylindrical sections (21, 22), the pairs of mating sections (21, 22) having arcuate ends forming longitudinally extending opposed faces mating at a diametral plane, the longitudinal opposed faces being sealed together, the adjacent axial ends of the segments (11, 12) being circumferentially sealed together, ends of the fitting having internal seals (32, 36) arranged to contact and seal onto the exterior of the pipe whereby the space between said internal seals within said fitting is closed, characterised in that the segments (11, 12) have radial end flanges (28, 42), with axially oriented through bolt holes (29, 43) the end flanges of adjacent segments being fixed together by common bolts, through the bolt holes (29, 43) and in that the radial end flanges (28, 42) of adjacent segments are sealed by intermediate arcuate seals.
Kitchen appliance for processing foodstuffs, having an electric motor and a control module for the electric motor, wherein the control module has a printed circuit board for electrical and/or electronic components, wherein the printed circuit board has at least one first and one second contact pole (15, 16) which interact with a switching bridge to control the electric motor, wherein the contact poles (15, 16) are embodied as elongated and run in parallel at least in certain sections, characterised in that the first contact pole is embodied as a ring sector and the second contact pole is embodied as a ring, such that the contact poles (15, 16) run concentrically.
A polyolefin composition comprising: 10-40% by weight of a copolymer of propylene with hexene-1 comprising 1.0-6.0% by weight, based on the weight of, of units deriving from hexene-1 and having melt flow rate (MFR A) measured according to ISO 1133, 230°C, 2.16 kg ranging from 20 to 60 g/10 min.; and 60-90% by weight of a copolymer of propylene with at least one alpha-olefin of formula CH 2 =CHR, and optionally a diene, where R is H or a linear or branched C2-C8 alkyl and wherein the copolymer comprises 20-35% by weight, based on the total weight of, of alpha-olefin, wherein the polyolefin composition comprises an amount of fraction soluble in xylene (XS(tot)) at 25°C equal to or higher than 65% by weight, the amounts of, and XS(tot) being based on the total weight of +. 10-40% by weight of a copolymer of propylene with hexene-1 comprising 1.0-6.0% by weight, based on the weight of, of units deriving from hexene-1 and having melt flow rate (MFR A) measured according to ISO 1133, 230°C, 2.16 kg ranging from 20 to 60 g/10 min.; and 60-90% by weight of a copolymer of propylene with at least one alpha-olefin of formula CH 2 =CHR, and optionally a diene, where R is H or a linear or branched C2-C8 alkyl and wherein the copolymer comprises 20-35% by weight, based on the total weight of, of alpha-olefin,
An implantable medical system, comprising: an implantable medical device capable of being implanted within a patient at a first depth or a second depth more shallow than the first depth; an external charger configured for transcutaneously conveying electrical energy to charge the implanted medical device; a charge strength indicator (64, 104) configured for generating a user-discernible signal; a detector configured for detecting an electrical parameter; and a processor configured for automatically adjusting, based on the detected electrical parameter, a threshold at which the charge strength indicator (64, 104) generates a user-discernible signal, characterised in that the processor is configured for adjusting the threshold based on values of the detected electrical parameter during a series of discrete time periods, such that the processor is capable of increasing the threshold if the medical device is implanted at the first depth, and decreasing the threshold if the medical device is implanted at the second depth. an implantable medical device capable of being implanted within a patient at a first depth or a second depth more shallow than the first depth; an external charger configured for transcutaneously conveying electrical energy to charge the implanted medical device; a charge strength indicator (64, 104) configured for generating a user-discernible signal; a detector configured for detecting an electrical parameter; and a processor configured for automatically adjusting, based on the detected electrical parameter, a threshold at which the charge strength indicator (64, 104) generates a user-discernible signal, characterised in that the processor is configured for adjusting the threshold based on values of the detected electrical parameter during a series of discrete time periods, such that the processor is capable of increasing the threshold if the medical device is implanted at the first depth, and decreasing the threshold if the medical device is implanted at the second depth.
A method for sterilizing a material comprising poly(ester urea) polymer fibers, comprising the steps of: exposing a material comprising poly(ester urea) polymer fibers to radiation to sterilize the material; wherein the material is an electrospun fiber material incorporating the poly(ester urea) polymer fibers and the maximum diameter of the fibres is 10 μm; characterized in that said radiation is electron beam radiation at a dosage of between 5 kGy and 50 kGy and the electron beam has an energy level of 5 MeV to 20 MeV; and the method produces a material comprising poly(ester urea) polymer fibers; and the material has a sterility assurance level with a probability level of less than about 10 -6 after the step of exposing the material to radiation. exposing a material comprising poly(ester urea) polymer fibers to radiation to sterilize the material; wherein the material is an electrospun fiber material incorporating the poly(ester urea) polymer fibers and the maximum diameter of the fibres is 10 μm; characterized in that said radiation is electron beam radiation at a dosage of between 5 kGy and 50 kGy and the electron beam has an energy level of 5 MeV to 20 MeV; and the method produces a material comprising poly(ester urea) polymer fibers; and the material has a sterility assurance level with a probability level of less than about 10 -6 after the step of exposing the material to radiation.