mhurhangee/ep-ind-claims huggingface dataset:
A pointer control apparatus comprising: a first input device that provides a position signal expressed using a first coordinate system associated with the first input device; a second input device that provides a position signal expressed using a second coordinate system associated with the second input device; a pointer generation system that generates for display in a common display space having a common display coordinate system a first pointer associated with the first input device and a second pointer associated with the second input device; characterized by: a mapping integrator processor configured to compute the position of the first pointer within the display coordinate system based upon both the position signal of the first input device and the position signal of the second input device, and configured to compute the position of the second pointer within the display coordinate system based upon both the position signal of the first input device and the position signal of the second input device; the mapping integrator processor being configured to continuously adjust a dynamic boundary within the common display coordinate system based on both the position signals of the first and second input devices and to compute the positions of the first and second pointers such that each is confined to a different side of the dynamic boundary. a first input device that provides a position signal expressed using a first coordinate system associated with the first input device; a second input device that provides a position signal expressed using a second coordinate system associated with the second input device; a pointer generation system that generates for display in a common display space having a common display coordinate system a first pointer associated with the first input device and a second pointer associated with the second input device; a mapping integrator processor configured to compute the position of the first pointer within the display coordinate system based upon both the position signal of the first input device and the position signal of the second input device, and configured to compute the position of the second pointer within the display coordinate system based upon both the position signal of the first input device and the position signal of the second input device; the mapping integrator processor being configured to continuously adjust a dynamic boundary within the common display coordinate system based on both the position signals of the first and second input devices and to compute the positions of the first and second pointers such that each is confined to a different side of the dynamic boundary.
A chimeric antigen receptor that specifically binds CD22, the CAR comprising: an antigen binding domain comprising a heavy chain CDR1 comprising SEQ ID NO:1, a heavy chain CDR2 comprising SEQ ID NO:2, a heavy chain CDR3 comprising SEQ ID NO:3, a light chain CDR1 comprising SEQ ID NO:4, a light chain CDR2 comprising SEQ ID NO:5, a light chain CDR3 comprising SEQ ID NO:6, a transmembrane domain, and an intracellular T cell signaling domain. an antigen binding domain comprising a heavy chain CDR1 comprising SEQ ID NO:1, a heavy chain CDR2 comprising SEQ ID NO:2, a heavy chain CDR3 comprising SEQ ID NO:3, a light chain CDR1 comprising SEQ ID NO:4, a light chain CDR2 comprising SEQ ID NO:5, a light chain CDR3 comprising SEQ ID NO:6, a transmembrane domain, and an intracellular T cell signaling domain.
A method, executed by a user equipment apparatus, of initiating a high speed uplink channel, comprising: receiving, at a user equipment, UE, an order on a high speed shared control channel, HS-SCCH, from a Node B, wherein the order is configured to trigger the UE to start transmitting on a high speed dedicated physical control channel, HS-DPCCH, in CELL_FACH; performing a physical random access channel, PRACH, procedure in response to the receiving of the order; performing a collision resolution procedure in response to the receiving of the order; characterized by the step of transmitting, in response to the order, a current channel quality indicator, CQI, of the UE on the HS-DPCCH prior to the end of the collision resolution procedure. receiving, at a user equipment, UE, an order on a high speed shared control channel, HS-SCCH, from a Node B, wherein the order is configured to trigger the UE to start transmitting on a high speed dedicated physical control channel, HS-DPCCH, in CELL_FACH; performing a physical random access channel, PRACH, procedure in response to the receiving of the order; performing a collision resolution procedure in response to the receiving of the order; characterized by the step of transmitting, in response to the order, a current channel quality indicator, CQI, of the UE on the HS-DPCCH prior to the end of the collision resolution procedure.
A hair treatment device, comprising: a device body; at least one sensor arranged in or on the device body for detecting a hair state parameter; at least one sensor arranged in or on the device body for detecting movements and changes in position of the device body, and an electronic circuit device arranged in or on the device body, wherein the electronic circuit device is coupled to the at least two sensors in order to receive the detected hair state parameter and to receive the detected movements and changes in position, wherein the electronic circuit device is further configured to control, on the basis of the received detected hair state parameter, at least one hair treatment parameter and to meter at least one hair treatment agent and optionally provide a hair treatment recommendation, and wherein the electronic circuit device is further configured to determine, on the basis of the received movements and changes in position, a spatial location of the device body and/or a speed of the device body. a device body; at least one sensor arranged in or on the device body for detecting a hair state parameter; at least one sensor arranged in or on the device body for detecting movements and changes in position of the device body, and an electronic circuit device arranged in or on the device body, wherein the electronic circuit device is coupled to the at least two sensors in order to receive the detected hair state parameter and to receive the detected movements and changes in position, wherein the electronic circuit device is further configured to control, on the basis of the received detected hair state parameter, at least one hair treatment parameter and to meter at least one hair treatment agent and optionally provide a hair treatment recommendation, and wherein the electronic circuit device is further configured to determine, on the basis of the received movements and changes in position, a spatial location of the device body and/or a speed of the device body.
Irrigation/aspiration system for irrigating and aspirating a surgical site comprising an irrigation flow path for directing fluid towards the surgical site via an irrigation connection, and an aspiration flow path for directing fluid away from the surgical site via an aspiration connection, wherein in the irrigation flow path and/or the aspiration flow path a membrane pump is arranged for pumping fluid through the irrigation flow path and/or the aspiration flow path, wherein the membrane pump comprises a main pump chamber, at least two valves (4, 5) for opening and/or closing the main pump chamber, characterized in that the membrane pump further comprises an auxiliary pump chamber arranged between the irrigation connection and/or aspiration connection and the main pump chamber for compensating movement of a main pump plunger element in the main pump chamber to provide for an approximately even fluid flow to and/or from the surgical site, wherein the auxiliary pump chamber is arranged with an auxiliary pump plunger element.
An instrument for scanning a large microscope specimen, the instrument comprising a light source, a detector array, a specimen holder for mounting the specimen, a scanning stage, and at least one lens (115, 125) for focusing light from the specimen onto the detector array, the specimen holder being located on the scanning stage, the instrument configured to axially focus along an optical axis of the instrument, the detector array being tilted relative to the optical axis, characterised in that the detector array is dynamically tiltable about an axis that is located in the plane of the detector array, and that is parallel to a direction of stage motion in which the scanning stage is configured to move during a scan, to maintain focus across a width of a scan strip as the scan proceeds.
A method for production of blister copper, comprising the following steps: in a production device, mixing copper-smelting molten slag, a carbon-containing reducing agent and pressurized inert gas followed by reaction to obtain blister copper and post-reaction slag, wherein the inert gas has a pressure of 100k Pa to 800 kPa; wherein in the copper-smelting molten slag, the copper in oxidized state is in an amount of 10% to 20% by weight and Fe 3 O 4 is in an amount of 30% to 50% by weight; the production device comprises a furnace body, a molten pool inside of the furnace body, and a plurality of gas nozzles, a feed port, a blister copper discharge port and a slag discharge port are disposed on the furnace body and the plurality of gas nozzles are disposed on the sidewall of the furnace body, the gas nozzles being immersed in the melt in the molten pool and leading to the middle part of the molten pool; the middle part of the molten pool refers to the position corresponding to the formed slag layer; and the carbon-containing reducing agent is at least one of coke and coal. in a production device, mixing copper-smelting molten slag, a carbon-containing reducing agent and pressurized inert gas followed by reaction to obtain blister copper and post-reaction slag, wherein the inert gas has a pressure of 100k Pa to 800 kPa; wherein in the copper-smelting molten slag, the copper in oxidized state is in an amount of 10% to 20% by weight and Fe 3 O 4 is in an amount of 30% to 50% by weight; the production device comprises a furnace body, a molten pool inside of the furnace body, and a plurality of gas nozzles, a feed port, a blister copper discharge port and a slag discharge port are disposed on the furnace body and the plurality of gas nozzles are disposed on the sidewall of the furnace body, the gas nozzles being immersed in the melt in the molten pool and leading to the middle part of the molten pool; the middle part of the molten pool refers to the position corresponding to the formed slag layer; and the carbon-containing reducing agent is at least one of coke and coal.
A wound dressing for absorbing wound exudate, comprising: an absorbent core defining opposed proximal and distal surfaces and at least one receptacle formed therein, the at least one receptacle opening at the distal surface of the absorbent core, the at least one receptacle extending a distance 70-90% of the total thickness of the absorbent core, the at least one receptacle containing a discrete portion of at least one absorbent material. an absorbent core defining opposed proximal and distal surfaces and at least one receptacle formed therein, the at least one receptacle opening at the distal surface of the absorbent core, the at least one receptacle extending a distance 70-90% of the total thickness of the absorbent core, the at least one receptacle containing a discrete portion of at least one absorbent material.
A method for treating solid waste based on a gradient generated by two different heat sources (4 and 5), the method comprising: using a reactor on negative pressure, the reactor comprising two chambers (2 and 3), a pyrolysis chamber and a fusion chamber for ashes and inert materials, in which a thermal gradient, that can be from 900°C to 1600°C, is generated by controlled power heat sources (4 and 5) in the pyrolysis chamber and the fusion chamber, respectively; sucking the resulting pyrolysis gases using a suction device and directing them to a heat exchanger where they undergo sharp cooling by water that is circulated through a pump and cooled by air in an outside environment aided by a radiator; condensed oil and water in the heat exchanger are carried by gravity to a tank; injecting the gases, once cooled, into an alkaline water tank, whose fluid is constantly recirculated with the aid of a pump assembly and filter and is cooled in a radiator; using a blower to suck the effluent gases from the tank across an activated charcoal filter and directing them to a combustor having a generator of electric discharges; burning the gases, then passing them through a catalyst which ensures the maximum reduction of NOx, CO and other gases, and then releasing them to the atmosphere through a flue. using a reactor on negative pressure, the reactor comprising two chambers (2 and 3), a pyrolysis chamber and a fusion chamber for ashes and inert materials, in which a thermal gradient, that can be from 900°C to 1600°C, is generated by controlled power heat sources (4 and 5) in the pyrolysis chamber and the fusion chamber, respectively; sucking the resulting pyrolysis gases using a suction device and directing them to a heat exchanger where they undergo sharp cooling by water that is circulated through a pump and cooled by air in an outside environment aided by a radiator; condensed oil and water in the heat exchanger are carried by gravity to a tank; injecting the gases, once cooled, into an alkaline water tank, whose fluid is constantly recirculated with the aid of a pump assembly and filter and is cooled in a radiator; using a blower to suck the effluent gases from the tank across an activated charcoal filter and directing them to a combustor having a generator of electric discharges;
Security element adapted to reveal at least two distinct messages (M1, M2) depending on at least two different observation conditions, comprising, firstly, a stack consisting of at least: - a first at least partially translucent sheet, - and a final sheet (4', 20) and, secondly: - on the front face of the first sheet, at least a first message formed by at least one pattern layer, - between the first sheet and the final sheet (4', 20), at least a second message formed by at least one pattern layer (7, 21), - between the front of the first sheet, inclusive, and the back, inclusive, of the final sheet (4', 20), at least a first at least partially semi-reflective layer (2"), the first message being visible under first observation conditions and the second message being visible under second observation conditions different from the first observation conditions. - a first at least partially translucent sheet, - and a final sheet (4', 20) - on the front face of the first sheet, at least a first message formed by at least one pattern layer, - between the first sheet and the final sheet (4', 20), at least a second message formed by at least one pattern layer (7, 21), - between the front of the first sheet, inclusive, and the back, inclusive, of the final sheet (4', 20), at least a first at least partially semi-reflective layer (2"),
High-voltage feedthrough comprising an insulating body that is arranged in a concentric manner around a cylindrical winding support that is embodied from an electrically conductive material, and also comprising a sealing device for sealing a gap between the winding support and the insulating body, wherein the sealing device comprises a sealing element in a circumferential seal groove, wherein the circumferential seal groove is arranged in the winding support and receives the sealing element, characterized in that the sealing device comprises moreover a sealing ring that is arranged in a concentric manner with respect to the sealing element.
A lithium iron phosphate battery comprising: a positive electrode plate comprising a positive current collector and a positive electrode film provided on the surface of the positive current collector; a negative electrode plate comprising a negative current collector and a negative electrode film provided on the surface of the negative current collector; a separator provided between the positive electrode plate and the negative electrode plate; and an electrolyte comprising an organic solvent, a lithium salt and an electrolyte additive; characterized in that, a positive active material in the positive electrode plate comprises lithium iron phosphate; a negative active material in the negative electrode plate comprises graphite; the electrolyte additive comprises a cyclic carbonate containing a double bond and a cyclic disulfonate represented by the formula I; in Formula I, A and B are each independently selected from an alkylene group having 1 to 3 carbon atoms; and in the electrolyte the cyclic carbonate containing a double bond is present in an amount of 0.5% to 4% by mass and the cyclic disulfonate is present in an amount of 0.2% to 1% by mass; and the electrolyte has a conductivity of 8 mS/cm to 11 mS/cm at 25°C; and the electrolyte has a viscosity of 2 mPa.s to 4 mPa.s at 25°C. a positive electrode plate comprising a positive current collector and a positive electrode film provided on the surface of the positive current collector; a negative electrode plate comprising a negative current collector and a negative electrode film provided on the surface of the negative current collector; a separator provided between the positive electrode plate and the negative electrode plate; and an electrolyte comprising an organic solvent, a lithium salt and an electrolyte additive; characterized in that, a positive active material in the positive electrode plate comprises lithium iron phosphate; a negative active material in the negative electrode plate comprises graphite; the electrolyte additive comprises a cyclic carbonate containing a double bond and a cyclic disulfonate represented by the formula I; in Formula I, A and B are each independently selected from an alkylene group having 1 to 3 carbon atoms; and in the electrolyte the cyclic carbonate containing a double bond is present in an amount of 0.5% to 4% by mass and the cyclic disulfonate is present in an amount of 0.2% to 1% by mass; and the electrolyte has a conductivity of 8 mS/cm to 11 mS/cm at 25°C; and the electrolyte has a viscosity of 2 mPa.s to 4 mPa.s at 25°C.
A block copolymer composition for a viscous adhesive comprising: a component (a): 50 mass% or more and 90 mass% or less of a non-hydrogenated block copolymer having a number average molecular weight of 10,000 or more and 60,000 or less, comprising a polymer block mainly including a vinyl aromatic monomer unit and a polymer block mainly including a conjugated diene monomer unit selected from the group consisting of 1,3-butadiene, 2,3-dimethyl-1,3-butadiene, 1,3-pentadiene and 1,3-hexadiene; and a component (b): 10 mass% or more and 50 mass% or less of a non-hydrogenated block copolymer having a number average molecular weight of more than 120,000 and 200,000 or less, comprising a polymer block mainly including a vinyl aromatic monomer unit and a polymer block mainly including a conjugated diene monomer unit selected from the group consisting of 1,3-butadiene, 2,3-dimethyl-1,3-butadiene, 1,3-pentadiene and 1,3-hexadiene; a content of the vinyl aromatic monomer unit being 25 to 50 mass%; the composition having a 15 mass% toluene solution viscosity of 10 to 40 mPa·s; and a number average molecular weight ratio of the component (b) to the component (a) being 2.0 to 4.0. a component (a): 50 mass% or more and 90 mass% or less of a non-hydrogenated block copolymer having a number average molecular weight of 10,000 or more and 60,000 or less, comprising a polymer block mainly including a vinyl aromatic monomer unit and a polymer block mainly including a conjugated diene monomer unit selected from the group consisting of 1,3-butadiene, 2,3-dimethyl-1,3-butadiene, 1,3-pentadiene and 1,3-hexadiene; and a component (b): 10 mass% or more and 50 mass% or less of a non-hydrogenated block copolymer having a number average molecular weight of more than 120,000 and 200,000 or less, comprising a polymer block mainly including a vinyl aromatic monomer unit and a polymer block mainly including a conjugated diene monomer unit selected from the group consisting of 1,3-butadiene, 2,3-dimethyl-1,3-butadiene, 1,3-pentadiene and 1,3-hexadiene; a content of the vinyl aromatic monomer unit being 25 to 50 mass%; the composition having a 15 mass% toluene solution viscosity of 10 to 40 mPa·s; and a number average molecular weight ratio of the component (b) to the component (a) being 2.0 to 4.0.
A method of data channel transmission, the method being executed by an apparatus and comprising: allocating available power to a data channel for transmitting data, after power has been allocated to active channels for communication; determining an amount of power allocated to the data channel; determining a total amount of power the data channel requires for transmitting the data; determining additional power the data channel requires as the total amount of power the data channel requires for transmitting the data less the amount of power allocated to the data channel; selecting an active channel for power stealing based on a selection algorithm, the active channel being selected in response to the data channel requiring additional power; and stealing power from the selected active channel and allocating the stolen power to the data channel, wherein stealing power comprises using a puncturing method whereby a single active channel provides the required additional power to the data channel during a portion of the data transmission and another single active channel provides the required additional power to the data channel during another portion of the data transmission. allocating available power to a data channel for transmitting data, after power has been allocated to active channels for communication; determining an amount of power allocated to the data channel; determining a total amount of power the data channel requires for transmitting the data; determining additional power the data channel requires as the total amount of power the data channel requires for transmitting the data less the amount of power allocated to the data channel; selecting an active channel for power stealing based on a selection algorithm, the active channel being selected in response to the data channel requiring additional power; and stealing power from the selected active channel and allocating the stolen power to the data channel, wherein stealing power comprises using a puncturing method whereby a single active channel provides the required additional power to the data channel during a portion of the data transmission and another single active channel provides the required additional power to the data channel during another portion of the data transmission.