mhurhangee/ep-ind-claims huggingface dataset:
A teatcup liner adapted to be mounted in a shell to form a teatcup to be applied to a teat of an animal, the teatcup liner defining a length axis, an inner space for receiving the teat, and an outer side and comprising a barrel and an upper head for receiving the teat, wherein the barrel has an end portion on the outer side of which a primary engagement member is arranged, wherein the primary engagement member is adapted to be in engagement with a secondary engagement member arranged on the shell, and wherein the primary engagement member is bendable towards the upper head, characterised in that a hindering member is arranged on the outer side of the teatcup liner on a side of the primary engagement member being distant from the upper head, thereby rendering the primary engagement member less prone to bend away from the upper head than to bend towards the upper head.
A by-pass valve arrangement for an exhaust system of an internal combustion engine, the by-pass valve arrangement comprising ducting having a first inlet, a second inlet, a first outlet and a second outlet, the arrangement further comprising a valve having - a first position, in which position fluid flow from the first inlet to the first outlet and from the second inlet to the second outlet is allowed, and fluid flow from the first inlet to the second outlet and from the second inlet to the first outlet is blocked, and - a second position, in which position fluid flow from the first inlet to the second outlet and from the second inlet to the first outlet is allowed, and fluid flow from the first inlet to the first outlet and from the second inlet to the second outlet is blocked, the ducting comprising a first duct element connecting the first inlet to the first outlet, and a second duct element connecting the second inlet to the second outlet, characterized in that each of the first duct element and the second duct element comprises a flange (6, 7) for arranging the valve between the first duct element and the second duct element. - a first position, in which position fluid flow from the first inlet to the first outlet and from the second inlet to the second outlet is allowed, and fluid flow from the first inlet to the second outlet and from the second inlet to the first outlet is blocked, and - a second position, in which position fluid flow from the first inlet to the second outlet and from the second inlet to the first outlet is allowed, and fluid flow from the first inlet to the first outlet and from the second inlet to the second outlet is blocked,
A method of operating a non-volatile memory, comprising: programming a non-volatile flash memory cell at a first resolution, having a number of program states, to represent a selected data state, of a number of defined data states, each corresponding to a respective threshold voltage range; and sensing the flash memory cell at a second resolution having a number of sense states that is different than the number of program states of the first resolution; characterised in that: the number of program states is greater than the number of defined data states. programming a non-volatile flash memory cell at a first resolution, having a number of program states, to represent a selected data state, of a number of defined data states, each corresponding to a respective threshold voltage range; and sensing the flash memory cell at a second resolution having a number of sense states that is different than the number of program states of the first resolution; characterised in that: the number of program states is greater than the number of defined data states.
A tractor, comprising: an engine; a battery; a hydraulic continuously variable transmission configured to change an output of the engine, and change an inclination angle of a movable swash plate to change a gear ratio; an electric actuator which is driven by electric power supplied from the battery at least while the engine is stopped; and a power transmission mechanism configured to change the inclination angle of the movable swash plate of the hydraulic continuously variable transmission, by transmitting power generated by the electric actuator; wherein the tractor includes rear wheels and a rear axle, and wherein at least a part of the electric actuator is positioned higher than a height of a center of the rear axle. an engine; a battery; a hydraulic continuously variable transmission configured to change an output of the engine, and change an inclination angle of a movable swash plate to change a gear ratio; an electric actuator which is driven by electric power supplied from the battery at least while the engine is stopped; and a power transmission mechanism configured to change the inclination angle of the movable swash plate of the hydraulic continuously variable transmission, by transmitting power generated by the electric actuator; wherein the tractor includes rear wheels and a rear axle, and wherein at least a part of the electric actuator is positioned higher than a height of a center of the rear axle.
A dual-hardness clad steel plate, wherein one surface of the dual-hardness clad steel plate is a high hardness layer, and another surface thereof is a low hardness layer, wherein atomic bonding is realized between the high hardness layer and the low hardness layer by rolling, wherein the low hardness layer is a Mn13 steel with a Brinell surface hardness lower than 250 HB10/3000, and the high hardness layer has a Brinell surface hardness of greater than 600 HB10/3000, wherein the high-hardness layer comprises the following chemical elements in mass percentage: C: 0.35-0.45%, Si: 0.80-1.60%, Mn: 0.3-1.0%, Al: 0.02-0.06%, Ni: 0.3-1.2%, Cr: 0.30-1.00%, Mo: 0.20-0.80%, Cu: 0.20-0.60%, Ti: 0.01-0.05%, B: 0.001-0.003%, and a balance of iron and unavoidable impurities; the low-hardness layer comprises the following chemical elements in mass percentage: C: 1.00-1.35%, Si: 0.30-0.90%, Mn: 11.0-19.0%, Al: 0.02-0.06%, optionally Mo: 0.90-1.80%, and a balance of iron and unavoidable impurities; the high-hardness layer has a microstructure of martensite and a small amount of residual austenite, and the proportion of the residual austenitic phase is less than 1%.
A method for hydroponic culture of a plant of the family Asteraceae, the method comprising a hydroponic culture step comprising culturing a plant of the family Asteraceae while adjusting the amount of a nutrient solution so that 10 to 50% of the total length from the tip of the tap root of the plant of the family Asteraceae is soaked in the nutrient solution, and the rest of the tap root is exposed to a gas.
A method for preparing coal for coke making, in which an individual brand of coal or caking additive is prepared at a time prior to arrival at a coal yard disposed in a coke plant, the individual brand of coal or caking additive being used alone or in mixture with another coal as a raw material for coke making, the method comprising the steps of obtaining a measured permeation distance of the individual brand of coal or caking additive and controlling the size of particles of the individual brand of coal or caking additive having a permeation distance of 15 mm or more at the time prior to arrival at the coal yard so that a content of particles having a diameter of 6 mm or more in the individual brand of coal or caking additive reaches 30% by mass or less, the permeation distance being measured by a method including the following steps to: crushing the individual brand of coal or caking additive until a content of particles having a diameter of 2 mm or less reaches 100% by mass and then packing a vessel with the individual brand of coal or caking additive that has been crushed at a bulk density of 0.8 g/cm 3 and at a thickness of 10 mm to prepare a sample; arranging glass beads having a diameter of 2 mm on the sample at a thickness of the permeation distance or more; while applying a load of 50 kPa to an upper portion of the glass beads, performing heating in an inert gas atmosphere from room temperature to 550°C at a heating rate of 3°C/min; and measuring a permeation distance of the softened sample that has permeated a layer composed of the glass beads. crushing the individual brand of coal or caking additive until a content of particles having a diameter of 2 mm or less reaches 100% by mass and then packing a vessel with the individual brand of coal or caking additive that has been crushed at a bulk density of 0.8 g/cm 3 and at a thickness of 10 mm to prepare a sample; arranging glass beads having a diameter of 2 mm on the sample at a thickness of the permeation distance or more; while applying a load of 50 kPa to an upper portion of the glass beads, performing heating in an inert gas atmosphere from room temperature to 550°C at a heating rate of 3°C/min; and measuring a permeation distance of the softened sample that has permeated a layer composed of the glass beads.
An implantable device comprising: a hermetic package enclosing an electronic circuit suitable to be implanted within a head; a flexible circuit including a plurality of electrodes electrically coupled to the electronic circuit through an integrated cable suitable to record neural activity or stimulate neural activity including; a polymer base layer forming an array portion and a cable portion, the cable portion adapted to connect to an electronic control unit and the array portion divided into separate highly flexible fingers, patterned metal traces deposited on said polymer base layer, a polymer top layer deposited on said polymer base layer and said polymer top layer defining voids for electrodes, wherein the highly flexible fingers each include mating means for mating with respective spikes of an insertion tool; and a wireless link electrically coupled to the electronic circuit for sending or receiving data. a hermetic package enclosing an electronic circuit suitable to be implanted within a head; a flexible circuit including a plurality of electrodes electrically coupled to the electronic circuit through an integrated cable suitable to record neural activity or stimulate neural activity including; a polymer base layer forming an array portion and a cable portion, the cable portion adapted to connect to an electronic control unit and the array portion divided into separate highly flexible fingers, patterned metal traces deposited on said polymer base layer, a polymer top layer deposited on said polymer base layer and said polymer top layer defining voids for electrodes, wherein the highly flexible fingers each include mating means for mating with respective spikes of an insertion tool; and a polymer base layer forming an array portion and a cable portion, the cable portion adapted to connect to an electronic control unit and the array portion divided into separate highly flexible fingers, patterned metal traces deposited on said polymer base layer, a polymer top layer deposited on said polymer base layer and said polymer top layer defining voids for electrodes, wherein the highly flexible fingers each include mating means for mating with respective spikes of an insertion tool; and a wireless link electrically coupled to the electronic circuit for sending or receiving data.
A mobile broadband, MBB, device for implementing communication based on an MBIM interface, wherein the MBB device comprises: a receiving module, configured to receive a service query request message that is sent by a host through a mapped MBIM interface; an MBIM processing module, configured to parse the service query request message to acquire a service query request; and a sending module, configured to report, according to the service query request, an extended service class supported by the MBB device to the host, so that the host exchanges information of an extended service with the MBB device through the MBIM interface, characterized in that when the extended service class comprises outputting MBB device state; wherein the MBB device further comprises a device state output module, the receiving module configured to receive, through a control path of the MBB device, a service request, which is sent by the host, for outputting the MBB device state; the device state output module configured to output Log data indicating the MBB device state; the MBIM processing module configured to encapsulate the Log data into a packet in Device Service Stream format; and the sending module configured to return the packet carrying the Log data to the host through a data path of the MBB device. a receiving module, configured to receive a service query request message that is sent by a host through a mapped MBIM interface; an MBIM processing module, configured to parse the service query request message to acquire a service query request; and a sending module, configured to report, according to the service query request, an extended service class supported by the MBB device to the host, so that the host exchanges information of an extended service with the MBB device through the MBIM interface, characterized in that when the extended service class comprises outputting MBB device state; wherein the MBB device further comprises a device state output module, the receiving module configured to receive, through a control path of the MBB device, a service request, which is sent by the host, for outputting the MBB device state; the device state output module configured to output Log data indicating the MBB device state; the MBIM processing module configured to encapsulate the Log data into a packet in Device Service Stream format; and the sending module configured to return the packet carrying the Log data to the host through a data path of the MBB device.
A data sharing system, comprising: a first data processing circuitry configured to store user-specific data of a user; at least one second data processing circuitry configured to store access rights of an external entity to access the user-specific data stored on the first data processing circuitry; an interface between the first data processing circuitry and the second data processing circuitry configured to communicate the access rights from the second data processing circuitry to the first data processing circuitry; a user interface configured to authenticate the user to the second data processing circuitry for modifying the access rights; and an interface (130") between the first data processing circuitry and the external entity configured to communicate a portion of the user-specific data to the external entity in accordance with the access rights. a first data processing circuitry configured to store user-specific data of a user; at least one second data processing circuitry configured to store access rights of an external entity to access the user-specific data stored on the first data processing circuitry; an interface between the first data processing circuitry and the second data processing circuitry configured to communicate the access rights from the second data processing circuitry to the first data processing circuitry; a user interface configured to authenticate the user to the second data processing circuitry for modifying the access rights; and an interface (130") between the first data processing circuitry and the external entity configured to communicate a portion of the user-specific data to the external entity in accordance with the access rights.
A process for drying solid waste material comprising: - providing a drying pipe comprising an upward section; - feeding solid waste material to be dried at a feeding point, located at the bottom of said upward section; - feeding a drying gas into said upward section at a speed greater than 15 m/s, said drying gas comprising exhaust gas from a clinker cooler, in order to create an upward flow of said waste material in said upward section and to provide a final drying gas and dried solid waste material; and - separating the final drying gas from the dried solid waste material, downstream of the drying pipe. - providing a drying pipe comprising an upward section; - feeding solid waste material to be dried at a feeding point, located at the bottom of said upward section; - feeding a drying gas into said upward section at a speed greater than 15 m/s, said drying gas comprising exhaust gas from a clinker cooler, in order to create an upward flow of said waste material in said upward section and to provide a final drying gas and dried solid waste material; and - separating the final drying gas from the dried solid waste material, downstream of the drying pipe.
A brass alloy consisting of: - 58.0 to 61.9 mass% of Cu, - 1.0 to 2.0 mass% of Sn, - 0.05 to 0.29 mass% of Sb, - 0.0 to 0.3 mass% of Pb and/or 0.0 to 0.3 mass% of Bi, thereby enabling recyclability with a copper alloy containing Pb and/or Bi and also giving excellent machinability and stress corrosion crack resistance, - optionally 0.05 to 1.5 mass% of Ni, - optionally 0.05 to 0.2 mass% of P, and - the remainder composed of Zn and unavoidable impurities. - 58.0 to 61.9 mass% of Cu, - 1.0 to 2.0 mass% of Sn, - 0.05 to 0.29 mass% of Sb, - 0.0 to 0.3 mass% of Pb and/or 0.0 to 0.3 mass% of Bi, thereby enabling recyclability with a copper alloy containing Pb and/or Bi and also giving excellent machinability and stress corrosion crack resistance, - optionally 0.05 to 1.5 mass% of Ni, - optionally 0.05 to 0.2 mass% of P, and - the remainder composed of Zn and unavoidable impurities.
A hyaluronic acid epoxide derivative film comprising 50-90 wt% of hyaluronic acid and 10-50 wt% of a polymer containing a hydroxyl (-OH) terminal group, wherein said polymer is physically bonded to a crosslinked hyaluronic acid epoxide derivative, and is one or more selected from the group consisting of polyethylene oxide, polypropylene oxide, a polyethylene oxide-polypropylene oxide copolymer, a polyethylene oxide-polylactic acid copolymer, a polyethylene oxide-polylactic glycolic acid copolymer, a polyethylene oxide-polycaprolactone copolymer, polybutylene oxide, polyoxyethylene alkyl ethers, polyoxyethylene castor oil derivatives, polyoxyethylene sorbitan fatty acid esters, and polyoxyethylene stearates, and wherein the hyaluronic acid derivative is prepared by allowing an epoxide crosslinker to react with hyaluronic acid or hyaluronate alone or in combination with a polymer capable of forming an ether covalent bond with hyaluronic acid
An assembly of a male coupling part and a stiff tube, comprising: the stiff tube having an attachment means; the male coupling part requiring a relative axial displacement between the male coupling part and the stiff tube for connecting to a female coupling part, the male coupling part comprising an axial through opening; and an element detachably connected to the male coupling part and slidably attached to the stiff tube, the element having an opening allowing relative axial displacement between the male coupling part and the stiff tube, and the attachment means being movable within the opening of the element; characterised in that the male coupling part comprises a removable stop attachable to the outside of the male coupling part. the stiff tube having an attachment means; the male coupling part requiring a relative axial displacement between the male coupling part and the stiff tube for connecting to a female coupling part, the male coupling part comprising an axial through opening; and an element detachably connected to the male coupling part and slidably attached to the stiff tube, the element having an opening allowing relative axial displacement between the male coupling part and the stiff tube, and the attachment means being movable within the opening of the element; characterised in that the male coupling part comprises a removable stop attachable to the outside of the male coupling part.
Antenna module (100, 200, 500) for a massive MIMO antenna, the antenna module (100, 200, 500) comprising: a plurality of first signal ports (101, 102, 201, 202, 501, 502), a number of first antenna elements (103, 104, 105, 106, 203, 204, 205, 206, 503, 504, 505, 506) arranged in a first matrix arrangement, and a switching matrix (107,207,507), characterized in that a number of rows of the first matrix arrangement and a number of columns of the first matrix arrangement equals the number of first signal ports (101, 102, 201, 202, 501, 502), and the switching matrix is configured to controllably couple each of the first signal ports (101, 102, 201, 202, 501, 502) either with all first antenna elements (103, 104, 105, 106, 203, 204, 205, 206, 503, 504, 505, 506) of a respective row of the first matrix arrangement, or all first antenna elements (103, 104, 105, 106, 203, 204, 205, 206, 503, 504, 505, 506) of a respective column of the first matrix arrangement. a plurality of first signal ports (101, 102, 201, 202, 501, 502), a number of first antenna elements (103, 104, 105, 106, 203, 204, 205, 206, 503, 504, 505, 506) arranged in a first matrix arrangement, and a switching matrix (107,207,507), characterized in that a number of rows of the first matrix arrangement and a number of columns of the first matrix arrangement equals the number of first signal ports (101, 102, 201, 202, 501, 502), and the switching matrix is configured to controllably couple each of the first signal ports (101, 102, 201, 202, 501, 502) either with all first antenna elements (103, 104, 105, 106, 203, 204, 205, 206, 503, 504, 505, 506) of a respective row of the first matrix arrangement, or all first antenna elements (103, 104, 105, 106, 203, 204, 205, 206, 503, 504, 505, 506) of a respective column of the first matrix arrangement.
A method of producing a processed cheese having natural antimicrobials, the method comprising: fermenting a liquid dairy medium with a Lactococcus lactis strain to produce a cultured dairy component including nisin and exopolysaccharide; adding the cultured dairy component to a natural cheese or mixture of natural cheeses with one or more emulsifiers to produce a processed cheese having about 8 to about 25 percent protein and about 10 to about 20 percent fat; wherein the processed cheese includes an amount of nisin, effective to prevent toxin formation from C. botulinum determined by toxin bioassay with mice, in the processed cheese at the protein and the fat levels thereof for about 9 days at 30°C (86°F); and wherein the processed cheese includes an amount of exopolysaccharide effective to increase the melt of the processed cheese and increase the firmness of the processed cheese relative to a processed cheese without nisin and exopolysaccharide. fermenting a liquid dairy medium with a Lactococcus lactis strain to produce a cultured dairy component including nisin and exopolysaccharide; adding the cultured dairy component to a natural cheese or mixture of natural cheeses with one or more emulsifiers to produce a processed cheese having about 8 to about 25 percent protein and about 10 to about 20 percent fat; wherein the processed cheese includes an amount of nisin, effective to prevent toxin formation from C. botulinum determined by toxin bioassay with mice, in the processed cheese at the protein and the fat levels thereof for about 9 days at 30°C (86°F); and wherein the processed cheese includes an amount of exopolysaccharide effective to increase the melt of the processed cheese and increase the firmness of the processed cheese relative to a processed cheese without nisin and exopolysaccharide.