mhurhangee/ep-ind-claims huggingface dataset:
Overhead luggage bins for aeroplanes, having a fixed bin with a stationary housing and a pivotable flap and a movable bin with a lowerable tray, wherein the fixed bin and the moveable bin each include a stationary part having side walls and a movable part which is pivotable between a closed and an open position around a rotation axis, having a closure element for retaining the movable part in the closed position, said parts defining a luggage-receiving space, wherein fastening devices (7, 7') for fastening to a supporting structure of the aeroplane are arranged on the stationary part, and at least one suspension device for a passenger service unit is arranged, and wherein the suspension device for the passenger service unit is arranged in the region of the rear side of the stationary part, so the passenger service unit may be arranged between the bin and the hull of the aeroplane, characterised in that two fastening devices for absorbing forces in the sideways and vertical directions to the direction of advancement of the aeroplane are arranged on the side walls of the stationary part and at least one further fastening device for absorbing forces in the sideways direction to the direction of advancement of the aeroplane and in the direction of advancement of the aeroplane is arranged in the region of the lower side of the rear side of the stationary part, said fastening devices and said further fastening device for the fixed bin and the movable bin being designed to be arranged at the same suspension and/or fastening locations on the supporting structure, and in that the luggage-receiving space, in the closed position of the movable part, has an end-to-end depth of at least 61 cm and an end-to-end height of at least 36 cm and a volume of at least 250 dm 3, so pieces of luggage can be placed in an endwise horizontal position.
A head guard attachment structure, comprising a head guard which includes: a pair of right and left front pillars (51, 51) disposed at a front of a vehicle body of a forklift and arranged at an interval in a vehicle width direction; a pair of right and left rear pillars (52, 52) disposed at a rear of the vehicle body and arranged at an interval in the vehicle width direction; and a ceiling part disposed over the front pillars and the rear pillars, characterized in that a fastening direction of fastening members which fasten either one of the pair of front pillars or the pair of rear pillars to the vehicle body is the vehicle width direction, and a fastening direction of fastening members which fasten other one of the pair of front pillars or the pair of rear pillars to the vehicle body is a vehicle front-rear direction, wherein at least one of the pair of front pillars or the pair of rear pillars is fastened to the vehicle body by interposing an attachment bracket between the vehicle body and each front pillar or each rear pillar, wherein the fastening direction of the fastening members fastening the attachment bracket and each front pillar or each rear pillar is the vehicle front-rear direction. a pair of right and left front pillars (51, 51) disposed at a front of a vehicle body of a forklift and arranged at an interval in a vehicle width direction; a pair of right and left rear pillars (52, 52) disposed at a rear of the vehicle body and arranged at an interval in the vehicle width direction; and a ceiling part disposed over the front pillars and the rear pillars, characterized in that a fastening direction of fastening members which fasten either one of the pair of front pillars or the pair of rear pillars to the vehicle body is the vehicle width direction, and a fastening direction of fastening members which fasten other one of the pair of front pillars or the pair of rear pillars to the vehicle body is a vehicle front-rear direction, wherein at least one of the pair of front pillars or the pair of rear pillars is fastened to the vehicle body by interposing an attachment bracket between the vehicle body and each front pillar or each rear pillar, wherein the fastening direction of the fastening members fastening the attachment bracket and each front pillar or each rear pillar is the vehicle front-rear direction.
A calibration slide for a fluorescent instrument comprising a microarray of inorganic phosphors on a glass slide; said inorganic phosphors comprise rare-earth metal multiplex materials, wherein said inorganic phosphors on said glass slide have different fluorescence intensity levels, and wherein said rare-earth metal multiplex materials comprise rare-earth ion doped phosphors having the formula of NaYF 4:M, or NaYbF 4:M, said M being Tm, Er or Ho, and wherein said rare-earth ion doped phosphors are coated with a polymer or an inorganic layer, said polymer layer including polystyrene and said inorganic layer including SiO 2.
A system comprising: a processing system comprising a processor; an input device integrated within the processing system and coupled with the processor; and a sensor arrangement comprising a plurality of sensing electrodes (130a..d) and being separate from said input device and integrated with the processing system and configured to monitor an area above said input device for detection of non-touching gestures, and a controller coupled with the sensor arrangement to detect said non-touching gestures, wherein the controller is coupled with the processor, characterized in that the controller is further configured to detect touches of the sensing electrodes (130a..d) of the sensor arrangement, wherein the system is further configured to detect a combination of a touch of at least one of the sensing electrodes (130a..d) and an input from said input device to trigger a function in the processing system, wherein the input is performed while the touch of at least one of the sensing electrodes (130a..d) is performed. a processing system comprising a processor; an input device integrated within the processing system and coupled with the processor; and a sensor arrangement comprising a plurality of sensing electrodes (130a..d) and being separate from said input device and integrated with the processing system and configured to monitor an area above said input device for detection of non-touching gestures, and a controller coupled with the sensor arrangement to detect said non-touching gestures, wherein the controller is coupled with the processor,
Method for generating at least one RF signal, the method comprising: receiving at least one digital baseband signal at a first clock rate; modulating, based on the digital baseband signal, at least one digital pulse sequence at a second clock rate corresponding to a center frequency of the RF signal, wherein modulating the digital pulse sequence comprises quantizing pulses of the digital pulse sequence based on a time grid of a third clock rate, wherein a ratio between a number of second clock cycles at the second clock rate corresponding to one first clock cycle at the first clock rate and a number of third clock cycles at the third clock rate corresponding to one first clock cycle is non-integer; and outputting the at least one modulated digital pulse sequence. receiving at least one digital baseband signal at a first clock rate; modulating, based on the digital baseband signal, at least one digital pulse sequence at a second clock rate corresponding to a center frequency of the RF signal, wherein modulating the digital pulse sequence comprises quantizing pulses of the digital pulse sequence based on a time grid of a third clock rate, wherein a ratio between a number of second clock cycles at the second clock rate corresponding to one first clock cycle at the first clock rate and a number of third clock cycles at the third clock rate corresponding to one first clock cycle is non-integer; and outputting the at least one modulated digital pulse sequence.
A wavefront detector for determining a signal wavefront (Ws) of a signal beam (Ls) received from an external signal light source that is distant from the wavefront detector, the wavefront detector comprising - a beam combiner configured to combine the signal beam (Ls) with a reference beam (Lr); - an image detector comprising an array of photosensitive pixels configured to receive and measure an interference pattern (Wrs) of the combined signal and reference beams (Lr+Ls); characterized in that the wavefront detector further comprises: - a reference light source configured to generate the reference beam (Lr) separate from the external signal light source; and - a feedback controller configured to o receive an interference signal (I B) based on measurement of at least part of the combined signal and reference beams (Lr+Ls), and o control generation of the reference beam (Lr) by a feedback loop based on the interference signal (I B) to adapt the reference beam (Lr) with respect to the signal beam (Ls). - a beam combiner configured to combine the signal beam (Ls) with a reference beam (Lr); - an image detector comprising an array of photosensitive pixels configured to receive and measure an interference pattern (Wrs) of the combined signal and reference beams (Lr+Ls); characterized in that the wavefront detector further comprises: - a reference light source configured to generate the reference beam (Lr) separate from the external signal light source; and - a feedback controller configured to o receive an interference signal (I B) based on measurement of at least part of the combined signal and reference beams (Lr+Ls), and o control generation of the reference beam (Lr) by a feedback loop based on the interference signal (I B) to adapt the reference beam (Lr) with respect to the signal beam (Ls). o receive an interference signal (I B) based on measurement of at least part of the combined signal and reference beams (Lr+Ls), and o control generation of the reference beam (Lr) by a feedback loop based on the interference signal (I B) to adapt the reference beam (Lr) with respect to the signal beam (Ls).
A process for producing an essentially pure inactivated Yellow Fever virus preparation comprising: a. obtaining a composition suitable for purification from virus-infected cell culture; b. clarifying the composition obtained in step "a" by removing cells and cell debris from said composition by depth filtration; c. subjecting the filtrate in step "b" to Benzonase digestion and 0.2 Micron filtration sufficient to fragment Vera cell DNA followed by filtration; d. purifying the filtrate obtained in step "c" via sulfate affinity chromatography to achieve depyrogenation of said virus in said filtrate; e. stabilizing and inactivating the viral product obtained in step "d" with an inactivation amount of β-PL, f. formulating the product obtained in step "e" by binding the product to alum. a. obtaining a composition suitable for purification from virus-infected cell culture; b. clarifying the composition obtained in step "a" by removing cells and cell debris from said composition by depth filtration; c. subjecting the filtrate in step "b" to Benzonase digestion and 0.2 Micron filtration sufficient to fragment Vera cell DNA followed by filtration; d. purifying the filtrate obtained in step "c" via sulfate affinity chromatography to achieve depyrogenation of said virus in said filtrate; e. stabilizing and inactivating the viral product obtained in step "d" with an inactivation amount of β-PL, f. formulating the product obtained in step "e" by binding the product to alum.
A liquid tetraacetylethylenediamine composition comprising: 15 wt% to 20 wt% tetraacetylethylenediamine, 75 wt% or less water, 0.5 wt% to 2 wt% polymeric sulfonic acid, 1 wt% to 4 wt% of a buffer system, and 0.5 wt% to 3 wt% of at least one additive. 15 wt% to 20 wt% tetraacetylethylenediamine, 75 wt% or less water, 0.5 wt% to 2 wt% polymeric sulfonic acid, 1 wt% to 4 wt% of a buffer system, and 0.5 wt% to 3 wt% of at least one additive.
A process for preparing a VPO catalyst comprising the steps of: (i) selecting an active VPO catalyst; and (ii) contacting the active VPO catalyst with one or more fluids comprising an organic solvent having a dielectric constant within a range of 5 to 55 when measured at a temperature of 20 °C to 25 °C, wherein the contacting is carried out at room temperature to 100°C above the boiling point of the fluid, wherein the pore size inside of the active VPO catalyst shaped body is not altered by a pore agent or a pore builder. (i) selecting an active VPO catalyst; and (ii) contacting the active VPO catalyst with one or more fluids comprising an organic solvent having a dielectric constant within a range of 5 to 55 when measured at a temperature of 20 °C to 25 °C, wherein the contacting is carried out at room temperature to 100°C above the boiling point of the fluid, wherein the pore size inside of the active VPO catalyst shaped body is not altered by a pore agent or a pore builder.
A polymer latex obtained by aqueous emulsion polymerization of a mixture of ethylenically unsaturated monomers comprising a) vinyl aromatic compounds; b) conjugated dienes; c) hydroxyalkyl esters of ethylenically unsaturated acids in an amount of 2 to 10 wt.-% based on the total weight of monomers; and d) ethylenically unsaturated carboxylic acids or salts thereof in an amount of 0 to 0.15 wt.-% based on the total weight of monomers; wherein the weight ratio of vinyl aromatic compounds to conjugated dienes is at least 1.3: 1 and the polymer latex comprises 2 to 10 wt.-% based on total weight of monomers of non-ionic surfactants having an HLB of 17 to 19. a) vinyl aromatic compounds; b) conjugated dienes; c) hydroxyalkyl esters of ethylenically unsaturated acids in an amount of 2 to 10 wt.-% based on the total weight of monomers; and d) ethylenically unsaturated carboxylic acids or salts thereof in an amount of 0 to 0.15 wt.-% based on the total weight of monomers;
A method comprising: providing a telemetry system comprising: a transmitter/monitor configured to provide tracking data and monitoring data; and a receiver adapted to define a coverage area, said receiver configured to receive the tracking data and the monitoring data from the transmitter/monitor when the transmitter/monitor is within the coverage area; identifying a false alarm region disposed within the coverage area; identifying an alarm condition based on the monitoring data received when the transmitter is within the coverage area; and canceling the alarm condition if the tracking data received when the transmitter is within the coverage area indicates that the transmitter/monitor is within the false alarm region. providing a telemetry system comprising: a transmitter/monitor configured to provide tracking data and monitoring data; and a receiver adapted to define a coverage area, said receiver configured to receive the tracking data and the monitoring data from the transmitter/monitor when the transmitter/monitor is within the coverage area; identifying a false alarm region disposed within the coverage area; identifying an alarm condition based on the monitoring data received when the transmitter is within the coverage area; and canceling the alarm condition if the tracking data received when the transmitter is within the coverage area indicates that the transmitter/monitor is within the false alarm region. a transmitter/monitor configured to provide tracking data and monitoring data; and a receiver adapted to define a coverage area, said receiver configured to receive the tracking data and the monitoring data from the transmitter/monitor when the transmitter/monitor is within the coverage area; identifying a false alarm region disposed within the coverage area; identifying an alarm condition based on the monitoring data received when the transmitter is within the coverage area; and canceling the alarm condition if the tracking data received when the transmitter is within the coverage area indicates that the transmitter/monitor is within the false alarm region.
A memory device, comprising: a substrate; an active area extending along a first direction on the substrate; a gate line traversing the active area and extending along a second direction that is not parallel to the first direction; a source doped region in the active area and on a first side of the gate line; a main source line extending along the first direction; a source line extension coupled to the main source line and extending along the second direction, wherein the main source line is electrically connected to the source doped region via the source line extension; a drain doped region in the active area and on a second side of the gate line that is opposite to the first side; a data storage element (MS1, MS2) electrically coupled to the drain doped region, wherein the data storage element (MS1, MS2) comprises a magnetic tunneling junction, MTJ, element; a landing pad disposed directly under the MTJ element, the MTJ element comprising a bottom electrode that is electrically connected to the landing pad; a drain contact electrically connecting the landing pad to the drain doped region; a first dielectric layer disposed on the substrate, wherein the landing pad is disposed in the first dielectric layer and is situated in a first horizontal plane; and a second dielectric layer covering the first dielectric layer and the landing pad, wherein the MTJ element is disposed in the second dielectric layer, and wherein the main source line and the source line extension are situated in a second horizontal plane, wherein the second horizontal plane is lower than the first horizontal plane. a substrate; an active area extending along a first direction on the substrate; a gate line traversing the active area and extending along a second direction that is not parallel to the first direction; a source doped region in the active area and on a first side of the gate line; a main source line extending along the first direction; a source line extension coupled to the main source line and extending along the second direction, wherein the main source line is electrically connected to the source doped region via the source line extension; a drain doped region in the active area and on a second side of the gate line that is opposite to the first side; a data storage element (MS1, MS2) electrically coupled to the drain doped region, wherein the data storage element (MS1, MS2) comprises a magnetic tunneling junction, MTJ, element; a landing pad disposed directly under the MTJ element, the MTJ element comprising a bottom electrode that is electrically connected to the landing pad; a drain contact electrically connecting the landing pad to the drain doped region; a first dielectric layer disposed on the substrate, wherein the landing pad is disposed in the first dielectric layer and is situated in a first horizontal plane; and a second dielectric layer covering the first dielectric layer and the landing pad, wherein the MTJ element is disposed in the second dielectric layer, and wherein the main source line and the source line extension are situated in a second horizontal plane, wherein the second horizontal plane is lower than the first horizontal plane.
A fuel supply pump, comprising: a pressurizing chamber that pressurizes fuel, a relief valve mechanism that includes a seat portion and a relief valve seated on the seat portion, characterized in that a set discharge pressure of the fuel supply pump is set to 30 MPa or more, a seat angle being an angle between conical slopes of the seat portion is formed to be 40° to 50°, and a set valve opening pressure of the relief valve mechanism is set to 2 MPa or larger than the set discharge pressure, wherein the relief valve mechanism is configured to open the relief valve when a pressure difference between a pressure on a discharge side of the pressurizing chamber and a pressure of the pressurizing chamber becomes larger than the set valve opening pressure, and wherein the set discharge pressure is set as a maximum pressure value on the discharge side of the pressurizing chamber in a suction stroke. a pressurizing chamber that pressurizes fuel, a relief valve mechanism that includes a seat portion and a relief valve seated on the seat portion, characterized in that a set discharge pressure of the fuel supply pump is set to 30 MPa or more, a seat angle being an angle between conical slopes of the seat portion is formed to be 40° to 50°, and a set valve opening pressure of the relief valve mechanism is set to 2 MPa or larger than the set discharge pressure, wherein the relief valve mechanism is configured to open the relief valve when a pressure difference between a pressure on a discharge side of the pressurizing chamber and a pressure of the pressurizing chamber becomes larger than the set valve opening pressure, and wherein the set discharge pressure is set as a maximum pressure value on the discharge side of the pressurizing chamber in a suction stroke.
Communication system adapted for a vehicle comprising a communication network between at least two communication interfaces (MOD1, M0D2) respectively connected to a first controller (CTRL1) managing a command application and a second controller (CTRL2) managing a command application, and wherein the communication interfaces have, for each controller, at least one communication port, from which a communication link is possible, and for transmission of a command application between the two communication interfaces, the communication link is a PLC ("Powerline communication") type link comprising at least two electrical conducting links (PLC1, PLC2) each connected to respective communication ports by means of at least one coupling transformer (PLC_coupler), characterised in that each link (PLC1 or PLC2) comprises a pair of different electrical conductors.