mhurhangee/ep-ind-claims huggingface dataset:
A product made of liposomes, which comprises lactoferrin, encapsulated inside the liposome lipid bilayer, and a component selected from hyaluronic acid, encapsulated inside the liposome lipid bilayer, or chitosan, for its use in the prevention and/or treatment of ocular diseases selected from the group consisting of conjunctivitis, chalazion, stye, blepharoconjunctivitis, keratitis, dry eye syndrome and hyposphagma.
A positive electrode active material for a secondary battery, the positive electrode active material being a lithium cobalt-based oxide including a doping element M, wherein a lithium cobalt-based oxide particle contains the doping element M in an amount of 3,000 ppm or more, wherein in a bulk portion corresponding to 90% of a core side among the radius from a core of the particle to a surface thereof, the doping element M in the lithium cobalt-based oxide particle is contained at a constant concentration, and in a surface portion from the surface of the particle to 100 nm in a core direction, the doping element M is contained at a concentration equal to or higher than that in the bulk portion, and has a concentration gradient in which the concentration thereof is gradually decreased in the core direction from the surface of the particle, and wherein the lithium cobalt-based oxide particle is represented by Formula 1: [Formula 1] Li a Co (1-x) M x O 2 in Formula 1, 0.95 ≤ a ≤1.05, 0 < x ≤0.2, and M is at least one selected from the group consisting of Al, Ti, Zr, Mg, Nb, Ba, Ca and Ta. wherein in a bulk portion corresponding to 90% of a core side among the radius from a core of the particle to a surface thereof, the doping element M in the lithium cobalt-based oxide particle is contained at a constant concentration, and in a surface portion from the surface of the particle to 100 nm in a core direction, the doping element M is contained at a concentration equal to or higher than that in the bulk portion, and has a concentration gradient in which the concentration thereof is gradually decreased in the core direction from the surface of the particle, and wherein the lithium cobalt-based oxide particle is represented by Formula 1: [Formula 1] Li a Co (1-x) M x O 2 in Formula 1, 0.95 ≤ a ≤1.05, 0 < x ≤0.2, and M is at least one selected from the group consisting of Al, Ti, Zr, Mg, Nb, Ba, Ca and Ta.
An oxide superconductor comprising an oxide superconductor layer having a continuous Perovskite structure including rare earth elements, barium (Ba), and copper (Cu), the rare earth elements including a first element, at least one second element, at least one third element, and at least one fourth element, the first element being praseodymium (Pr), the at least one second element being selected from the group consisting of neodymium (Nd), samarium (Sm), europium (Eu), and gadolinium (Gd), the at least one third element being selected from the group consisting of yttrium, terbium (Tb), dysprosium (Dy), and holmium (Ho), and the at least one fourth element being selected from the group consisting of erbium (Er), thulium (Tm), ytterbium (Yb), and lutetium (Lu), and when the number of atoms of the first element is N, the number of atoms of the at least one second element is N, and the number of atoms of the at least one fourth element is N, 1.5 × (N + N) ≤ N or 2 × (N - N) ≤ N is satisfied.
A hybrid vehicle control device that is applied to a hybrid vehicle including, as a drive source, a hybrid system having an engine and a motor, the control device being configured to calculate a requested value of an output to be transferred to drive wheels from the hybrid system based on an accelerator operation amount, a vehicle speed and a state of charge of a battery, wherein the control device is configured to perform the torque control of the motor and the engine according to the requested value, wherein the control device reduces the output to be transmitted to the drive wheels from the hybrid system lower than the requested value when an accelerator operation and a brake operation are simultaneously performed by a driver, wherein, at the time of reducing the output to be transferred to the drive wheels from the hybrid system by a first amount when an accelerator operation and a brake operation are simultaneously performed, the control device is configured to make a ratio of an amount of reduction of the output to be transferred to the drive wheels from the hybrid system by torque control of the motor to the total amount of reduction of the output to be transferred to the drive wheels from the hybrid system larger than that in the case where reduction of the output to be transferred to the drive wheels from the hybrid system by the first amount is performed due to reduction of the requested value according to a reduction in the accelerator operation amount, wherein a brake override system that makes braking of the vehicle based on the brake operation override acceleration of the vehicle based on an accelerator operation is applied to the vehicle, wherein the reduction of the output to be transferred to the drive wheels from the hybrid system is exclusively obtained by reduction of motor torque without reducing engine torque, characterized in that, when an accelerator operation and a brake operation are simultaneously performed by a driver, the control device is configured to reduce the output to be transmitted to the drive wheels from the hybrid system lower than the requested value by torque control of the motor while engine torque is maintained.
A sensor comprising an array (1, 30, 40, 70, 90) of electrostatic sensor elements (2, 3, 31, 41, 51, 71, 91, 100), each sensor element capable of producing a respective output signal when the sensor is directed to a region of an object being sensed, the output signals being separately available at the sensor output to provide information relating to the electrostatic charge distribution across the region, wherein at least two electrostatic sensor elements are interlinked by means of a differential input charge amplifier (7, 32, 42, 52, 53, 58, 74, 95, 101), characterised in that each input to the differential input charge amplifier includes a decoupling device (6, 96) comprising a capacitor.
A cartridge for a personal vaporizing device, the cartridge comprising: a liquid store, a liquid transfer element, a heating element, a first power terminal and a second power terminal connected to the heating element, and: a memory storing a first reference value indicating the resistance of the heating element at a reference temperature or reference temperature range of the heating element, characterized in that the memory stores a second reference value which allows to determine the difference between the resistance of the heating element and an open loop of an electronic circuit, the open loop extending between the power terminals (45a, 45b) and including the heating element. a liquid store, a liquid transfer element, a heating element, a first power terminal and a second power terminal connected to the heating element, and: a memory storing a first reference value indicating the resistance of the heating element at a reference temperature or reference temperature range of the heating element, characterized in that the memory stores a second reference value which allows to determine the difference between the resistance of the heating element and an open loop of an electronic circuit, the open loop extending between the power terminals (45a, 45b) and including the heating element.
A coupling device for coupling a rod to a bone anchor including a receiving part, the receiving part comprising a head receiving portion comprising an interior seat for pivotably receiving a head of the bone anchor, the head receiving portion being expandable to permit insertion of the head and compressible to lock an inserted head in the seat; a rod receiving portion comprising a recess forming two open legs and a bottom, the recess defining a channel for receiving the rod, the rod receiving portion including a first engagement structure for engagement with an instrument; and a locking ring configured to be arranged around the head receiving portion, the locking ring including a second engagement structure for the instrument; wherein when the locking ring is around the head receiving portion, the locking ring can assume an insertion position in which the head of the bone anchor can be inserted into the head receiving portion and a pre-locking position in which an inserted head is prevented from being removed from the head receiving portion, characterized in that when the locking ring is in the insertion position and the first engagement structure is engaged with the instrument, the coupling device is configured to be placed onto the head of the bone anchor. a receiving part, the receiving part comprising a head receiving portion comprising an interior seat for pivotably receiving a head of the bone anchor, the head receiving portion being expandable to permit insertion of the head and compressible to lock an inserted head in the seat; a rod receiving portion comprising a recess forming two open legs and a bottom, the recess defining a channel for receiving the rod, the rod receiving portion including a first engagement structure for engagement with an instrument; and a locking ring configured to be arranged around the head receiving portion, the locking ring including a second engagement structure for the instrument; wherein when the locking ring is around the head receiving portion, the locking ring can assume an insertion position in which the head of the bone anchor can be inserted into the head receiving portion and a pre-locking position in which an inserted head is prevented from being removed from the head receiving portion, characterized in that when the locking ring is in the insertion position and the first engagement structure is engaged with the instrument, the coupling device is configured to be placed onto the head of the bone anchor.
A component supply system comprising: a stage configured such that multiple components are loaded in a scattered state on the stage so as to supply the components; a replenishing device configured to replenish the components on the stage; an imaging device configured to image the stage; characterized by: a determining device configured to determine whether to replenish the components on the stage from the replenishing device based on first imaging data that is imaging data captured by the imaging device of the stage in a state without the components loaded on the stage, and second imaging data that is imaging data captured by the imaging device of the stage after the components have been replenished from the replenishing device and supplying of the components has been started by the component supply system. a stage configured such that multiple components are loaded in a scattered state on the stage so as to supply the components; a replenishing device configured to replenish the components on the stage; an imaging device configured to image the stage; characterized by: a determining device configured to determine whether to replenish the components on the stage from the replenishing device based on first imaging data that is imaging data captured by the imaging device of the stage in a state without the components loaded on the stage, and second imaging data that is imaging data captured by the imaging device of the stage after the components have been replenished from the replenishing device and supplying of the components has been started by the component supply system.
Self-supporting structural module for a floor slab comprising at least one slab made of concrete or suchlike, extending in a first laying direction, configured to form part of a ceiling and provided with bearing elements at least partially embedded in the concrete slab so as to at least partly protrude from its surface and characterized in that said bearing elements are engaged, by means of suitable connection means (27, 30, 33), with one or more supports provided with support parts protruding from both sides of said slab in a second direction, different from said first laying direction, so as to leave said support parts of the support free and allow the structural module (20a,20a',20b,20c) to self-support on structural elements of the floor slab, wherein said supports are positioned in correspondence with the ends of the slab and between the supports and the slab concrete blocks are made, which incorporate the protruding ends of the bearing elements.
A crank set for a bicycle, wherein the crank set comprises a freewheel device (25, 26, 29) with holes for the attachment of chain rings (5, 27, 28), wherein the holes are arranged in a ring-shaped manner according to at least two different hole circles with diameters L1 and L2, characterised in that one of the mountable chain rings (5, 27, 28) is a motor chain ring, and the crank set comprises a chain guide disc that is mountable between the motor chain ring and the retaining chain rings (27, 28).
Sheet made of cardboard or plastics material for folding a closable tray, in the sense of a carton, for providing food, comprising a receiving region for at least one container (15, 16), the free side of which region is adjoined by a connecting tab, a first web that adjoins the receiving region on the side thereof opposite the connecting tab, the depth of which web, optionally together with the depth of the connecting tab, specifies the height of the folded tray, a self-contained base region which adjoins the first web and is intended to be arranged preferably in parallel underneath the receiving region, a second web that adjoins the base region, the depth of which web, together with the first web and optionally with the connecting tab, specifies the height of the folded tray, a lid region that adjoins the second web and, when the tray is folded, can cover the receiving region and expose it by pivoting, and a locking tab that adjoins the lid region, the locking tab being designed to be fixed to the surface of the first web, characterised in that the two webs (3, 5) and the locking tab have substantially the same surface area.
Apparatus for applying viscous material to workpieces, having a rotary lance arranged to rotate about an axis of rotation that runs in a longitudinal direction, in a holding device, which lance has at least one material outlet, wherein a needle valve is assigned to each material outlet, by means of the valve needle of which, extending in the longitudinal direction, the corresponding material outlet can be closed off at a valve seat, and wherein a cylinder is assigned to each valve needle, in the piston chamber of which cylinder a piston can be moved by means of a fluid, by applying pressure, with which piston the valve needle is firmly connected, characterized in that a tappet is connected with each piston, which tappet is passed out of the piston chamber in question, in a sealed-off manner, on the top that faces away from the at least one valve seat, that the rotary lance has a measuring element that can be impacted by means of the tappets and displaced in the longitudinal direction, and that the holding device has a sensor for determining the position of the measuring element.
Wireless communication apparatus comprising: first base station means providing an access point to a first communications network, the first base station means being operable to communicate wirelessly with a first access terminal using a first carrier at a first frequency and having a first bandwidth; second base station means providing an access point to a second communications network, the second base station means being operable to communicate wirelessly with a second access terminal using a set of carriers at respective different frequencies within a second frequency band, wherein the second frequency band has a second bandwidth larger than the first bandwidth and the first frequency is within the second frequency band, wherein the second base station means is arranged to inhibit transmission of data by the second base station means to the second access terminal using a subset of carriers having frequencies within the first bandwidth of the first frequency, wherein the second base station means comprises: a scheduler arranged to schedule control data on the set of carriers; and is further characterised by comprising a filter arranged to remove control data scheduled to be transmitted on said subset of carriers having frequencies within the first bandwidth of the first frequency. first base station means providing an access point to a first communications network, the first base station means being operable to communicate wirelessly with a first access terminal using a first carrier at a first frequency and having a first bandwidth; second base station means providing an access point to a second communications network, the second base station means being operable to communicate wirelessly with a second access terminal using a set of carriers at respective different frequencies within a second frequency band, wherein the second frequency band has a second bandwidth larger than the first bandwidth and the first frequency is within the second frequency band, wherein the second base station means is arranged to inhibit transmission of data by the second base station means to the second access terminal using a subset of carriers having frequencies within the first bandwidth of the first frequency, wherein the second base station means comprises: a scheduler arranged to schedule control data on the set of carriers; and is further characterised by comprising a filter arranged to remove control data scheduled to be transmitted on said subset of carriers having frequencies within the first bandwidth of the first frequency. a scheduler arranged to schedule control data on the set of carriers; and is further characterised by comprising a filter arranged to remove control data scheduled to be transmitted on said subset of carriers having frequencies within the first bandwidth of the first frequency.
A driver for a micro-electro-mechanical-system, MEMS, device, the driver comprising: a first input configured to receive a first direct current, DC, command signal (Vincm); a second differential input configured to receive a second alternating current, AC, command signal (Vinp, Vinn); and a differential amplifier configured to receive a high voltage supply, the differential amplifier configured to provide, to the MEMS device, a closed-loop output signal responsive to both the first DC command signal (Vincm) and the second AC command signal (Vinp, Vinn) in a first state, and to provide an open loop output signal configured to substantially span a voltage range of the high voltage supply in a second state. a first input configured to receive a first direct current, DC, command signal (Vincm); a second differential input configured to receive a second alternating current, AC, command signal (Vinp, Vinn); and a differential amplifier configured to receive a high voltage supply, the differential amplifier configured to provide, to the MEMS device, a closed-loop output signal responsive to both the first DC command signal (Vincm) and the second AC command signal (Vinp, Vinn) in a first state, and to provide an open loop output signal configured to substantially span a voltage range of the high voltage supply in a second state.
Device for milking animals, comprising a plurality of milking stations (1A, 1B), a second central milk line and a line cleaning device (8, 18), wherein at least two milking stations (1A, 1B) comprise a milk collecting container (2A, 2B) and a displacing means (6A, 6B) for displacing liquid from the milk collecting container (2A, 2B), which milk collecting container (2A, 2B) is connected to a first discharge line (3A, 3B) and to a second discharge line (4A, 4B), wherein the second central milk line is connected to the second discharge line (4A, 4B) for leading milk from a plurality of milking stations (1A, 1B) to a collective liquid discharge, and wherein the line cleaning device (8, 18) is connected to the second central milk line for cleaning at least the second central milk line with a cleaning liquid, wherein the device comprises at least one station cleaning device for cleaning the parts of a milking station (1A, 1B) that come into contact with milk, wherein the station cleaning device is the line cleaning device, characterized in that the supply connection of the line cleaning device (8, 18) with the second central milk line is located at least equally far from the liquid discharge as the connection (X', X") of a second discharge line (4A, 4B) with the second central milk line, and in that the station cleaning device is capable of being brought into a first position for cleaning only the second central milk line and into a second position for cleaning the milking station (1A, 1B).
An ironing shoe (2, 102, 202, 302) comprising a laminate (4, 104, 204, 304) having at least one laminate opening (15, 115, 215, 315) and a laminate periphery corresponding to a sole periphery of a sole plate (3, 203, 303) of an iron (201, 301), the sole plate having a sole plate surface (10, 210), the laminate comprising a heat insulating layer (5, 105, 205, 305) having a sole contact surface (6, 106, 206, 306) for making contact with the sole plate surface of the iron and a heat transfer layer (7, 107, 207, 307) having a garment contact surface (8, 108, 208, 308, 408) for ironing, and a fastener for fastening the shoe to a sole plate (3, 203,303), characterised in that the heat insulating layer (5, 105, 205, 305) extends across the heat transfer layer(7, 107, 207, 307) to the extent that the heat transfer layer (7, 107, 207, 307) is prevented from contacting the sole plate (3, 203, 303) of the iron (201,301) during mounting and unmounting of the ironing shoe (2,102,202,302), and in that the fastener (209,211) comprises a protrusion integrated with the heat insulating layer (5, 105, 205, 305), the protrusion and the heat insulating layer (5, 105, 205, 305) being made from the same polymer.
A method to select a receiving apparatus for co-channel operation, the method comprising: transmitting a first data sequence at a first power level on a first channel to a first remote station; transmitting a second data sequence at a second power level on the first channel to the first remote station, wherein the first and second data sequence are transmitted within a discovery burst; receiving a signal from the first remote station indicating characteristics of the first data sequence and the second data sequence; and determining whether the first remote station is a candidate for co-channel operation based on the characteristics of the first data sequence and the second data sequence. transmitting a first data sequence at a first power level on a first channel to a first remote station; transmitting a second data sequence at a second power level on the first channel to the first remote station, wherein the first and second data sequence are transmitted within a discovery burst; receiving a signal from the first remote station indicating characteristics of the first data sequence and the second data sequence; and determining whether the first remote station is a candidate for co-channel operation based on the characteristics of the first data sequence and the second data sequence.
A method for manufacturing a composite part comprising fibers and resin, the method comprising: laying fibers in a mold; covering the laid fibers and a mold surface with a pliable sheet to restrain movement of the laid fibers; at least partially uncovering the laid fibers in the mold; and laying additional fibers. laying fibers in a mold; covering the laid fibers and a mold surface with a pliable sheet to restrain movement of the laid fibers; at least partially uncovering the laid fibers in the mold; and laying additional fibers.