mhurhangee/ep-ind-claims huggingface dataset:
A projective volume monitoring apparatus comprising a sensing unit that includes: four image sensors (18, 18-1, 18-2, 18-3, 18-4) having respective sensor fields-of-view that all overlap a primary monitoring zone and arranged so that first and second image sensors (18-1, 18-2) form a first primary -baseline pair whose spacing defines a first primary baseline, third and fourth image sensors (18-3, 18-4) form a second primary -baseline pair whose spacing defines a second primary baseline, and further arranged so that the first and third image sensors (18-1, 18-3) form a first secondary-baseline pair whose spacing defines a first secondary baseline, and the second and fourth imaging sensors (18-2, 18-4) form a second secondary -baseline pair whose spacing defines a second secondary baseline, wherein the primary baselines (32-1, 32-2) are longer than the secondary baselines (34-1, 34-2); characterized by image-processing circuits configured to redundantly detect objects within the primary monitoring zone using image data acquired from the primary-baseline pairs (32-1, 32-2), and further configured to detect shadowing objects using image data acquired from the secondary-baseline pairs (34-1, 34-2), wherein a shadowing object obstructs one or more of the sensor fields-of-view with respect to the primary monitoring zone. four image sensors (18, 18-1, 18-2, 18-3, 18-4) having respective sensor fields-of-view that all overlap a primary monitoring zone and arranged so that first and second image sensors (18-1, 18-2) form a first primary -baseline pair whose spacing defines a first primary baseline, third and fourth image sensors (18-3, 18-4) form a second primary -baseline pair whose spacing defines a second primary baseline, and further arranged so that the first and third image sensors (18-1, 18-3) form a first secondary-baseline pair whose spacing defines a first secondary baseline, and the second and fourth imaging sensors (18-2, 18-4) form a second secondary -baseline pair whose spacing defines a second secondary baseline, wherein the primary baselines (32-1, 32-2) are longer than the secondary baselines (34-1, 34-2); characterized by image-processing circuits configured to redundantly detect objects within the primary monitoring zone using image data acquired from the primary-baseline pairs (32-1, 32-2), and further configured to detect shadowing objects using image data acquired from the secondary-baseline pairs (34-1, 34-2), wherein a shadowing object obstructs one or more of the sensor fields-of-view with respect to the primary monitoring zone.
A composition comprising a therapeutically effective amount of the calcimimetic Ac-c arrrar-NH 2 (SEQ ID NO:3) or a pharmaceutically acceptable salt thereof for use in the treatment of chronic kidney disease-mineral bone disorder (CKD-MBD) characterized by soft tissue calcification in a subject, wherein the therapeutically effective amount of the calcimimetic reduces the amount of soft tissue calcification in the subject.
A ball screw comprising a screw shaft, a nut, and a plurality of balls, wherein, the screw shaft passes through the nut, a rolling path along which the balls roll is formed by a helical groove formed on an outer peripheral surface of the screw shaft and a helical groove formed on an inner peripheral surface of the nut, the balls are disposed in the rolling path, a seal is attached to at least one end of ends of the nut in a moving direction of the nut, and the seal surrounds an outer periphery of the screw shaft and comprises: a seal mountain inside the seal entering the helical groove of the screw shaft; a tubular portion exposed axially outside the nut; and a grease reservoir portion provided on an inner peripheral surface of the tubular portion so as to form a space with respect to the screw shaft; characterized by a discharge outlet communicating with the grease reservoir portion and open to an outer peripheral surface of the tubular portion; a slit communicating with the discharge outlet and extending axially in the tubular portion of the seal, and a cover that covers the seal is provided on the nut or the seal. a seal mountain inside the seal entering the helical groove of the screw shaft; a tubular portion exposed axially outside the nut; and a grease reservoir portion provided on an inner peripheral surface of the tubular portion so as to form a space with respect to the screw shaft; characterized by a discharge outlet communicating with the grease reservoir portion and open to an outer peripheral surface of the tubular portion; a slit communicating with the discharge outlet and extending axially in the tubular portion of the seal, and a cover that covers the seal is provided on the nut or the seal.
One or more computer-readable storage media having program instructions stored thereon to facilitate simulating machines used in industrial automation, wherein the program instructions, when executed by a computing system, direct the computing system to: utilize an emulation simulation interface including a configurator module, a tag server and a synchronizer to establish at least a communication link between a simulation model created in a simulation application and an industrial controller system outside of the simulation model, wherein the simulation model comprises definitions for a virtual representation of at least a portion of a machine used in an industrial automation environment, wherein kinematics and dynamical information of the simulation model is used to generate realistic model conditions and wherein the configurator module hosts application-level information for connecting the industrial controller system with the simulation model, the tag server coordinates input and output tags for data exchange between the industrial controller system and the simulation model and the synchronizer coordinates the clock progression between the industrial controller system and the simulation model; and exchange data between the industrial controller system and the simulation model over the communication link; and utilize the exchanged data to generate an animated visualization of the machine permitting to observe in real-time the effect of the industrial controller system on the machine being simulated and controlled by motion instructions. utilize an emulation simulation interface including a configurator module, a tag server and a synchronizer to establish at least a communication link between a simulation model created in a simulation application and an industrial controller system outside of the simulation model, wherein the simulation model comprises definitions for a virtual representation of at least a portion of a machine used in an industrial automation environment, wherein kinematics and dynamical information of the simulation model is used to generate realistic model conditions and wherein the configurator module hosts application-level information for connecting the industrial controller system with the simulation model, the tag server coordinates input and output tags for data exchange between the industrial controller system and the simulation model and the synchronizer coordinates the clock progression between the industrial controller system and the simulation model; and exchange data between the industrial controller system and the simulation model over the communication link; and utilize the exchanged data to generate an animated visualization of the machine permitting to observe in real-time the effect of the industrial controller system on the machine being simulated and controlled by motion instructions.
A vision system for an aircraft, comprising: - a display; - an assembly for generating a synthetic environment, the generating assembly including a database, containing at least topographical information relative to the terrain situated facing the aircraft; - a display management system, on the display, capable of dynamically displaying synthetic information coming from the generating assembly on the display, the management assembly being capable of commanding the display, on at least one first region of the display, of relief lines representative of the terrain situated facing the aircraft, without displaying synthetic surface representations of the terrain in the intermediate areas situated between the relief lines of the first region of the display, the generating assembly comprising means for determining the position of the crest lines of the terrain from topographical data present in at least one database, and means for computing the position of the relief lines from the position of the crest lines of the terrain, and based on the position of the aircraft, the width and/or brightness of each relief line depending on the distance between the aircraft and the relief line, in which - either the management assembly is capable of keeping the intermediate areas between the relief lines displayed without synthetic or real image, the display being at least partially transparent, the terrain facing the aircraft being observable through the display in the intermediate areas - or the system includes an assembly for generating real images of the terrain facing the aircraft, comprising at least one detection sensor, the management assembly being capable of managing the display, at least in the intermediate areas between the relief lines, of a real image of the terrain situated facing the aircraft, simultaneously with the display of the relief lines. - a display; - an assembly for generating a synthetic environment, the generating assembly including a database, containing at least topographical information relative to the terrain situated facing the aircraft; - a display management system, on the display, capable of dynamically displaying synthetic information coming from the generating assembly on the display, - either the management assembly is capable of keeping the intermediate areas between the relief lines displayed without synthetic or real image, the display being at least partially transparent, the terrain facing the aircraft being observable through the display in the intermediate areas - or the system includes an assembly for generating real images of the terrain facing the aircraft, comprising at least one detection sensor, the management assembly being capable of managing the display, at least in the intermediate areas between the relief lines, of a real image of the terrain situated facing the aircraft, simultaneously with the display of the relief lines.
A fuel dispensing system comprising: a fuel tank adapted to contain a quantity of fuel; a fuel dispenser in fluid communication with said fuel tank via piping; a pump operative to transfer fuel from said fuel tank to said fuel dispenser; and a corrosive detection assembly operative to identify presence of a corrosive substance in said fuel, said corrosive detection assembly having: at least one detector (114,122,130,140) positioned to be in contact with fuel vapor in said fuel dispensing system, said detector (114,122,130,140) producing a detector signal indicating presence of the corrosive substance; and electronics in electrical communication with said detector (114,122,130,140), said electronics being operative to interpret said detector (114,122,130,140) signal and produce an output if the corrosive substance is present, characterised in that said detector is a thermoelectric detector (114,122,130,140) comprising a sensing circuit (116a,124a,132a,90a) having a pair of junctions (T 1,T 2) formed by interconnection of dissimilar conductors, said pair of junctions (T 1,T 2) being configured to experience substantially the same ambient temperature. a fuel tank adapted to contain a quantity of fuel; a fuel dispenser in fluid communication with said fuel tank via piping; a pump operative to transfer fuel from said fuel tank to said fuel dispenser; and a corrosive detection assembly operative to identify presence of a corrosive substance in said fuel, said corrosive detection assembly having: at least one detector (114,122,130,140) positioned to be in contact with fuel vapor in said fuel dispensing system, said detector (114,122,130,140) producing a detector signal indicating presence of the corrosive substance; and electronics in electrical communication with said detector (114,122,130,140), said electronics being operative to interpret said detector (114,122,130,140) signal and produce an output if the corrosive substance is present, characterised in that said detector is a thermoelectric detector (114,122,130,140) comprising a sensing circuit (116a,124a,132a,90a) having a pair of junctions (T 1,T 2) formed by interconnection of dissimilar conductors, said pair of junctions (T 1,T 2) being configured to experience substantially the same ambient temperature.
A reinforced concrete, characterized by comprising: a cement and a dispersion including water, a surfactant, multilayer carbon nanotubes wherein the carbon atoms in their external walls are substituted by atoms of other elements and multilayer carbon nanotubes including chemical groups on their surface. a cement and a dispersion including water, a surfactant, multilayer carbon nanotubes wherein the carbon atoms in their external walls are substituted by atoms of other elements and multilayer carbon nanotubes including chemical groups on their surface.
A method of controlling a catalytic exhaust system including a first catalytic unit located upstream of a second catalytic unit, comprising: i) providing a relationship between the temperature of the first catalytic unit, the amount of NH3 stored in the second catalytic unit and the corresponding limit value of the amount of NH3 permitted in the first unit; ii) measuring or estimating the amount of NH3 in the second catalytic unit; iii) measuring or estimating the temperature of the first catalytic unit; iv) using said relationship and measured/estimated parameters of steps ii) and iii) to providing a limit value for the amount of NH3 to be stored in said first catalytic unit v) using said parameter from iv) in the control of said system. i) providing a relationship between the temperature of the first catalytic unit, the amount of NH3 stored in the second catalytic unit and the corresponding limit value of the amount of NH3 permitted in the first unit; ii) measuring or estimating the amount of NH3 in the second catalytic unit; iii) measuring or estimating the temperature of the first catalytic unit; iv) using said relationship and measured/estimated parameters of steps ii) and iii) to providing a limit value for the amount of NH3 to be stored in said first catalytic unit v) using said parameter from iv) in the control of said system.
A radar test system for testing a device-under-test, DUT, comprising: an antenna array comprising: ∘ at least two RX antennas (RX1-4) having different antenna polarizations and at least one TX antenna (TX1-4), or ∘ at least two TX antennas (TX1-4) having different antenna polarizations and at least one RX antenna (RX1-4); a selection module configured to select one RX antenna and one TX antenna of the antenna array and to connect the selected RX antenna with the selected TX antenna (TX1-4), wherein the selected RX antenna and the selected TX antenna are adjacent RX and TX antennas of the antenna array and distance between the selected RX and TX antenna is smaller than 5 cm; wherein the selected RX antenna is configured to receive a radar signal from the DUT; and wherein the selected TX antenna is configured to transmit a response signal to the DUT. an antenna array comprising: ∘ at least two RX antennas (RX1-4) having different antenna polarizations and at least one TX antenna (TX1-4), or ∘ at least two TX antennas (TX1-4) having different antenna polarizations and at least one RX antenna (RX1-4); ∘ at least two RX antennas (RX1-4) having different antenna polarizations and at least one TX antenna (TX1-4), or ∘ at least two TX antennas (TX1-4) having different antenna polarizations and at least one RX antenna (RX1-4); a selection module configured to select one RX antenna and one TX antenna of the antenna array and to connect the selected RX antenna with the selected TX antenna (TX1-4), wherein the selected RX antenna and the selected TX antenna are adjacent RX and TX antennas of the antenna array and distance between the selected RX and TX antenna is smaller than 5 cm; wherein the selected RX antenna is configured to receive a radar signal from the DUT; and wherein the selected TX antenna is configured to transmit a response signal to the DUT.
An apparatus comprising: a plurality of registers to store data values; and processing circuitry to perform processing operations in response to instructions; wherein in response to one of a first class of instructions identifying first and second architectural register numbers, the processing circuitry is configured to perform a corresponding processing operation using first and second registers corresponding to the first and second architectural register numbers; and instructions of said first class of instructions have an instruction encoding which constrains said first architectural register number to be greater than said second architectural register number; wherein the processing circuitry is configured to process instructions according to an instruction set architecture providing 2 N architectural registers, characterized in that: in said first class of instructions, the two source architectural registers (Rx, Ry) are represented using two fields (A, B) which together comprise 2N-1 bits of the instruction encoding. a plurality of registers to store data values; and processing circuitry to perform processing operations in response to instructions; wherein in response to one of a first class of instructions identifying first and second architectural register numbers, the processing circuitry is configured to perform a corresponding processing operation using first and second registers corresponding to the first and second architectural register numbers; and instructions of said first class of instructions have an instruction encoding which constrains said first architectural register number to be greater than said second architectural register number; wherein the processing circuitry is configured to process instructions according to an instruction set architecture providing 2 N architectural registers, characterized in that: in said first class of instructions, the two source architectural registers (Rx, Ry) are represented using two fields (A, B) which together comprise 2N-1 bits of the instruction encoding.
A data transmission method, wherein the method comprises: sending, by a network device, first indication information, wherein the first indication information comprises N bits, the N bits are corresponding to M time units, wherein the N bits comprises M groups, each of the M groups comprises L consecutive bits, L is a quantity of frequency domain units, the j th bit in the i th group is corresponding to the j th frequency domain unit in the i th time unit, the i th group belongs to the M groups, the i th time unit belongs to the M time units, i∈[1, M], j∈[1, L], M is less than or equal to N, and L is a positive integer, the j th bit in the i th group indicates whether a corresponding time frequency unit is used to transmit data of a terminal device, M is a positive integer, and N is a positive integer, the corresponding time frequency unit of the j th bit in the i th group is the j th frequency domain unit in the i th group; and sending, by the network device, downlink data in a time frequency unit to the terminal device, wherein the time frequency unit is indicated by the N bits. sending, by a network device, first indication information, wherein the first indication information comprises N bits, the N bits are corresponding to M time units, wherein the N bits comprises M groups, each of the M groups comprises L consecutive bits, L is a quantity of frequency domain units, the j th bit in the i th group is corresponding to the j th frequency domain unit in the i th time unit, the i th group belongs to the M groups, the i th time unit belongs to the M time units, i∈[1, M], j∈[1, L], M is less than or equal to N, and L is a positive integer, the j th bit in the i th group indicates whether a corresponding time frequency unit is used to transmit data of a terminal device, M is a positive integer, and N is a positive integer, the corresponding time frequency unit of the j th bit in the i th group is the j th frequency domain unit in the i th group; and sending, by the network device, downlink data in a time frequency unit to the terminal device, wherein the time frequency unit is indicated by the N bits.
Use of red-orange coloured dry particles having (a) a core and (b) a coating layer, which comprises 0.1 wt-% to 30 wt-%, based on the total weight of the coating layer, of β-carotene, characterised in that the β-carotene of the coating layer has A 1/1 value of up to 200, in an instant beverage powder. (a) a core and (b) a coating layer, which comprises 0.1 wt-% to 30 wt-%, based on the total weight of the coating layer, of β-carotene,
An attaching device for attaching a nut to a counterpart component, comprising: a storage part storing a plurality of the nuts; a welding part welding the nut to the counterpart component by a pair of electrodes (41, 42); said attaching device being characterized in that it comprises a conveying part having a flexible long member for conveying the nut stored in the storage part singly to the welding part; and a placement part provided at an outlet of the flexible long member on a side of the welding part, said placement part being such that it temporarily gets close between the pair of electrodes (41, 42) of the welding part to place the to be welded, before the nut to be welded is delivered from a delivery portion provided at the storage part; wherein the nut to be welded is placed on a lower electrode of the pair of electrodes (41, 42) after passing through the placement part singly from the conveying part. a storage part storing a plurality of the nuts; a welding part welding the nut to the counterpart component by a pair of electrodes (41, 42); said attaching device being characterized in that it comprises a conveying part having a flexible long member for conveying the nut stored in the storage part singly to the welding part; and a placement part provided at an outlet of the flexible long member on a side of the welding part, said placement part being such that it temporarily gets close between the pair of electrodes (41, 42) of the welding part to place the to be welded, before the nut to be welded is delivered from a delivery portion provided at the storage part; wherein the nut to be welded is placed on a lower electrode of the pair of electrodes (41, 42) after passing through the placement part singly from the conveying part.
A glass, which has a glass composition comprising, in terms of mole%, 50 to 85% of SiO 2, 5 to 30% of Al 2 O 3, 0.1 to 8% of Li 2 O, 7 to 20% of Na 2 O, 0 to 20% of K 2 O, 0 to 3% of B 2 O 3, 0 to 0.8% of SrO, 0 to 1% of CaO, 0 to 4% of MgO, 0.001 to 10% of TiO 2, and 15 to 35% of Li 2 O+Na 2 O+K 2 O+Al 2 O 3, has a (Li 2 O+Na 2 O+K 2 O)/Al 2 O 3 value of 1.5 to 3 in terms of mole fraction, a (MgO+CaO)/Al 2 O 3 value of 0 to 0.55 in terms of mole fraction, a Na 2 O/(Li 2 O+Na 2 O+K 2 O) value of 0.5 to 1 in terms of mole fraction, and is substantially free of As 2 O 3 and F.