mhurhangee/ep-ind-claims huggingface dataset:
A method for calculating attitude maneuvers of a satellite comprising at least one instrument pointing according to a pointing axis, under constraints of pointing directions to be avoided which correspond to at least one prohibited area towards which an instrument of the satellite points according to a pointing axis following a so-called unconstrained initial trajectory starting from a departure point to an arrival point, the method comprising steps of E1) determining at least one so-called avoidance point, such that an avoidance trajectory (A-C-B) of the pointing axis deviates from the initial trajectory (A-B) through the avoidance point in order to avoid the prohibited area; E5) determining attitude maneuvers of the satellite enabling the pointing axis to follow the avoidance trajectory (A-C-B), said attitudes being defined by attitude quaternions at the departure and avoidance points and by a velocity and an acceleration at these points, the quaternions describing the attitude of the satellite at a given moment, that is to say the rotation of the reference frame of the satellite relative to an inertial reference frame. E6) selecting, amongst the determined maneuvers, depending on the direction of bypassing the prohibited area (s), the best sequence of maneuvers to carry out.
A graphics processing unit comprising a shader processor, one or more fixed function hardware units and a command processor, wherein: the shader processor configured to execute a plurality of instructions in parallel; the one or more fixed function hardware units, separate from the shader processor, wherein the one or more fixed function hardware units are configured to perform a graphics rendering operation not performed by the shader processor; and the command processor unit configured to receive one or more tasks from a host processor and independently schedule the one or more tasks by independently determining when to execute the tasks and/or which GPU resources to execute the tasks based on an operation of each of the one or more tasks and a respective priority of the one or more tasks to be selectively executed by the shader processor and the one or more fixed function hardware units. the shader processor configured to execute a plurality of instructions in parallel; the one or more fixed function hardware units, separate from the shader processor, wherein the one or more fixed function hardware units are configured to perform a graphics rendering operation not performed by the shader processor; and the command processor unit configured to receive one or more tasks from a host processor and independently schedule the one or more tasks by independently determining when to execute the tasks and/or which GPU resources to execute the tasks based on an operation of each of the one or more tasks and a respective priority of the one or more tasks to be selectively executed by the shader processor and the one or more fixed function hardware units.
Cogenerating dynamic UPS, where in its components: a) a chassis where the full equipment is mounted, with an iron and aluminum structure and a containment ring where the bearings, the axis rod, and the starter motor are mounted; b) A stator with enameled copper coils that collect electrical energy; the coil cores made of resin, styrene, cobalt, ferrite and graphite compounds; capacitors and supercapacitors; c) Rotor of non-magnetic material with two concentric tracks where neodymium magnets are located, and a central disk port for high purity aluminum flanges; d) A Programmable Logic Controller PLC that has the following integrated components: control, panel control, and backlight display; power supply; interface for expansion modules; interface for programming module (Card), and PC cable; timer; digital and analogical controls; reader and controller of incoming and outgoing signals; e) Full-wave bridge rectifier AC-DCs; f) Flanges that are aluminum discs with a central hole to support the magnetic disk to the axis rod, coupled with fastening screws; g) Capacitors with 15uF capacity, + - 5%, and two 150uF supercapacitors per + - 5%, 200V; h) Neodymium magnets; i) Electric three-phase inverter that receives direct current from 0V to 30V and turns it into three-phase current; j) Interface module that consists of a set of mosfet type transistors, power controlled current coupling semiconductors. k) Two electric pulses catcher coils with air core detecting the positioning of the disc; and l) Battery bank. a) a chassis where the full equipment is mounted, with an iron and aluminum structure and a containment ring where the bearings, the axis rod, and the starter motor are mounted; b) A stator with enameled copper coils that collect electrical energy; the coil cores made of resin, styrene, cobalt, ferrite and graphite compounds; capacitors and supercapacitors; c) Rotor of non-magnetic material with two concentric tracks where neodymium magnets are located, and a central disk port for high purity aluminum flanges; d) A Programmable Logic Controller PLC that has the following integrated components: control, panel control, and backlight display; power supply; interface for expansion modules; interface for programming module (Card), and PC cable; timer; digital and analogical controls; reader and controller of incoming and outgoing signals; e) Full-wave bridge rectifier AC-DCs; f) Flanges that are aluminum discs with a central hole to support the magnetic disk to the axis rod, coupled with fastening screws; g) Capacitors with 15uF capacity, + - 5%, and two 150uF supercapacitors per + - 5%, 200V; h) Neodymium magnets; i) Electric three-phase inverter that receives direct current from 0V to 30V and turns it into three-phase current; j) Interface module that consists of a set of mosfet type transistors, power controlled current coupling semiconductors. k) Two electric pulses catcher coils with air core detecting the positioning of the disc; and l) Battery bank.
An establishment method of uplink synchronization based on joint transmission technology used in a mobile communication system, comprising following steps of: (a) performing channel estimation for a downlink channel near to an uplink channel by user equipment, in that the channel impulse response of the uplink channel and the channel impulse response of the downlink channel have correlation within a certain time range; (b) determining a transmission timing for transmission signals of an uplink synchronous time slot by user equipment; (c) constructing a transmission matrix A and a matrix d that is related to signals originally intended to be sent by user equipment based on downlink channel estimation result; (d) solving d = Ae + n by user equipment, obtaining a converted signal e, wherein n is a noise matrix; (e) using the converted signal e to replace an original uplink synchronous sequence for transmission by user equipment, and using the transmission timing determined in step (b) when transmitting; (f) estimating received signals through a correlator by a base station, obtaining a timing of uplink signals and deducing time adjustments needed to be performed by user equipment to reach uplink synchronization; (g) instructing user equipment to complete adjustments for the transmission timing of uplink signals based on obtained information by network, and adjusting the transmission timing of uplink signals by user equipment, achieving establishment of uplink synchronization. (a) performing channel estimation for a downlink channel near to an uplink channel by user equipment, in that the channel impulse response of the uplink channel and the channel impulse response of the downlink channel have correlation within a certain time range; (b) determining a transmission timing for transmission signals of an uplink synchronous time slot by user equipment; (c) constructing a transmission matrix A and a matrix d that is related to signals originally intended to be sent by user equipment based on downlink channel estimation result; (d) solving d = Ae + n by user equipment, obtaining a converted signal e, wherein n is a noise matrix; (e) using the converted signal e to replace an original uplink synchronous sequence for transmission by user equipment, and using the transmission timing determined in step (b) when transmitting; (f) estimating received signals through a correlator by a base station, obtaining a timing of uplink signals and deducing time adjustments needed to be performed by user equipment to reach uplink synchronization; (g) instructing user equipment to complete adjustments for the transmission timing of uplink signals based on obtained information by network, and adjusting the transmission timing of uplink signals by user equipment, achieving establishment of uplink synchronization.
A cap sterilization device comprising a sterilization chamber having a cap inlet and a cap outlet and guide means for guiding caps through the sterilization chamber, the device further comprising a nozzle for injecting a sterilant into the sterilization chamber and at least two exhaust outlets (112, 114) for evacuation of gases from the sterilization chamber, wherein a first exhaust outlet is arranged in the cap inlet and a second exhaust outlet is arranged in the cap outlet, characterized in that a valve is arranged upstream from the nozzle, between the nozzle and a vaporizer, the valve being configured to selectively redirect a flow from the vaporizer into an exhaust manifold instead of to the nozzle, based on input from a control system, in case of unexpected stops.
A laser array, comprising: a first laser element comprising a plurality of laser sources, wherein the plurality of laser sources are combined to form a first collimated laser element output beam; at least one additional laser element comprising a plurality of additional laser sources, wherein the plurality of additional laser sources are combined to form at least one additional collimated laser element output beam; wherein each laser element forming the laser array comprises at least one adjustable beam parameter to manipulate the respective collimated laser element output beam; a control interface configured to independently adjust each of the at least one adjustable beam parameters, characterized in that the at least one adjustable beam parameter comprises a beam focus position, and each laser element forming the laser array further comprises an electrically focusable lens configured to control the location of a waist in the respective collimated laser element output beam. a first laser element comprising a plurality of laser sources, wherein the plurality of laser sources are combined to form a first collimated laser element output beam; at least one additional laser element comprising a plurality of additional laser sources, wherein the plurality of additional laser sources are combined to form at least one additional collimated laser element output beam; wherein each laser element forming the laser array comprises at least one adjustable beam parameter to manipulate the respective collimated laser element output beam; a control interface configured to independently adjust each of the at least one adjustable beam parameters, characterized in that the at least one adjustable beam parameter comprises a beam focus position, and each laser element forming the laser array further comprises an electrically focusable lens configured to control the location of a waist in the respective collimated laser element output beam.
A method for producing a masterbatch, the method comprising a step of mixing a rubber latex having a zeta potential of -100 to -20 mV with a filler dispersion having a zeta potential of 10 to 90 mV, and preparing a latex compound having a zeta potential of -20 to 0 mV (zeta potentials as measured according to the description).
A method of wireless communication at a user equipment, UE, comprising: identifying a transmission time interval, TTI, associated with transmitting first channel state information, CSI, feedback for a component carrier, CC, operating in a standalone operation mode over a shared frequency band based at least in part on a CSI feedback configuration; identifying a transmission, from the evolved node B, eNB, reserving one or more channels of the shared frequency band for communication via the CC, the transmission identifying a time division duplex, TDD, configuration for the CC over a specified time duration; determining an uplink transmission window of one or more uplink transmission windows during the specified time duration for transmitting the first CSI feedback based at least in part on a timing characteristic of the uplink transmission window relative to the identified TTI; and performing a CSI feedback transmission procedure to transmit the first CSI feedback during the uplink transmission window identifying a transmission time interval, TTI, associated with transmitting first channel state information, CSI, feedback for a component carrier, CC, operating in a standalone operation mode over a shared frequency band based at least in part on a CSI feedback configuration; identifying a transmission, from the evolved node B, eNB, reserving one or more channels of the shared frequency band for communication via the CC, the transmission identifying a time division duplex, TDD, configuration for the CC over a specified time duration; determining an uplink transmission window of one or more uplink transmission windows during the specified time duration for transmitting the first CSI feedback based at least in part on a timing characteristic of the uplink transmission window relative to the identified TTI; and performing a CSI feedback transmission procedure to transmit the first CSI feedback during the uplink transmission window
A co-extruded heat-shrinkable bi-oriented multi-layer material, comprising at least two inner layers consisting of at least 90% by weight, or at least 95% by weight, or about 100% by weight, of amorphous Styrene Butadiene Copolymer and two surface layers comprising at least 20% by weight, or at least 25% by weight, of polypropylene-ethylene-butene terpolymer (TPEB).
Power tool, in particular an angle grinder, having a protective hood which at least partly covers a tool and has a clamping collar which can be fastened to a machine-side flange by means of a clamping device, wherein the flange has a bearing surface for the clamping collar, and the clamping collar is subjected to a clamping force via the clamping device to press it against the bearing surface on the flange, wherein a stop device limiting a relative movement between the protective hood and the flange is provided in the transmission path between the protective hood and the flange, which stop device comprises a stop element on the protective hood, characterized in that the stop element on the protective hood bears in the stop position against an associated counterpart on a component connected to the housing of the power tool, wherein the protective hood and the clamping device are embodied as separate components and the counterpart is arranged on the clamping device, wherein the stop element on the protective hood forms a stop with the counterpart on the clamping device.
A drive device comprising: a plurality of gears; and a grease composition that is held on a tooth flank of at least one gear of the gears, wherein the at least one gear is made of a resin, the grease composition contains a hydrocarbon base oil, lithium soap serving as a thickener, and olefin resin powder, a weight ratio between the hydrocarbon base oil and the lithium soap in the grease composition is in a range of 94.5:5.5 to 96.0:4.0, and a consistency of the grease composition is in a range of 360 to 400, as measured by Japanese Industrial Standard K2220. a plurality of gears; and a grease composition that is held on a tooth flank of at least one gear of the gears, wherein the at least one gear is made of a resin, the grease composition contains a hydrocarbon base oil, lithium soap serving as a thickener, and olefin resin powder, a weight ratio between the hydrocarbon base oil and the lithium soap in the grease composition is in a range of 94.5:5.5 to 96.0:4.0, and a consistency of the grease composition is in a range of 360 to 400, as measured by Japanese Industrial Standard K2220.
Pollution control element or chemical reactor comprising more than one substrate, wherein the substrate comprises a front face, a rear face and at least three flat side faces extending between the front and the rear face, wherein between two substrates only one mounting mat is positioned; characterized in that the mounting mat is shaped such that it covers at least partially two flat side faces and at least partially the edge enclosed by the two flat side faces..
A carbohydrate-lipid construct of the structure F-S 1 -S 2 -L including the substructure: where n = 3 to 5, * is other than H, F is an oligomer or polymer of hyaluronic acid consisting of β1-4 linked disaccharide units of glucuronic acid β1-3N-acetylglucosamine (GlcUAβ1-3GlcNAc), S 1 -S 2 is a spacer linking F to L, L is selected from the group consisting of diacyl- and dialkyl-glycerophospholipids, and F, S 1, S 2 and L are covalently linked.
Process for producing an organosiloxane polymer comprising - hydrolyzing tri- and tetraalkoxysilane monomers in a hydrolysis step; and - polymerising said hydrolyzed monomers in a polymerization step by subjecting them to conditions conducive to polymerisation to form an organosiloxane polymer; wherein the hydrolysis step is conducted in a reaction medium comprising an organic compound with hydroxyl groups, said reaction medium of the hydrolysis step comprising a second organic solvent, selected from the group of acetone, aliphatic and aromatic hydrocarbons, aliphatic or aromatic ethers, aliphatic or aromatic esters and mixtures, wherein the reaction medium comprises at least 50 mole-% of the second organic solvent, a minimum of 10 mole-% of the organic hydroxyl compound and a minimum of 10 mole-% water and wherein the second organic solvent is capable of dissolving the hydrolyzed monomer, and wherein the second organic solvent is changed for a third solvent after hydrolysis of the monomers and before polymerization of the hydrolyzed monomers, characterized in that the - third solvent has a higher boiling point than the second solvent and wherein water is used in the hydrolysis step and it has a pH of less than 7, preferably less than 6, in particular less than 5. - hydrolyzing tri- and tetraalkoxysilane monomers in a hydrolysis step; and - polymerising said hydrolyzed monomers in a polymerization step by subjecting them to conditions conducive to polymerisation to form an organosiloxane polymer; - third solvent has a higher boiling point than the second solvent and wherein water is used in the hydrolysis step and it has a pH of less than 7, preferably less than 6, in particular less than 5.
A see-through dressing assembly (40, 440) for use with a reduced-pressure treatment system on a patient, the dressing assembly (40, 340, 440, 530) comprising: a closing dressing bolster (46, 146, 246, 446) formed of a see-through material for placing over a wound on the patient and for providing a closing force when under reduced pressure, the closing dressing bolster (46, 146, 246, 446) comprising: a top wall (53, 139, 437) and a bottom wall (55, 141, 439), wherein the top wall (53, 139, 437) and bottom wall (55, 141, 439) are coupled in a spaced relationship to form a hollow region between the top wall (53, 139, 437) and the bottom wall (55, 141, 439), the bottom wall (55, 141, 439) having a center portion, a first lateral portion, and a second lateral portion, a first closing member (52, 56, 58, 152, 156, 252, 452,456) formed on the first lateral portion, and a second closing member (54, 60, 62, 154, 158, 254, 454, 460) formed on the second lateral portion; a sealing member (72, 472) formed form a see-through material for covering the closing dressing bolster (46, 146, 246, 446) and providing a seal over the closing dressing bolster (46, 146, 246, 446,) and a patient's epidermis a closing dressing bolster (46, 146, 246, 446) formed of a see-through material for placing over a wound on the patient and for providing a closing force when under reduced pressure, the closing dressing bolster (46, 146, 246, 446) comprising: a top wall (53, 139, 437) and a bottom wall (55, 141, 439), wherein the top wall (53, 139, 437) and bottom wall (55, 141, 439) are coupled in a spaced relationship to form a hollow region between the top wall (53, 139, 437) and the bottom wall (55, 141, 439), the bottom wall (55, 141, 439) having a center portion, a first lateral portion, and a second lateral portion, a first closing member (52, 56, 58, 152, 156, 252, 452,456) formed on the first lateral portion, and a second closing member (54, 60, 62, 154, 158, 254, 454, 460) formed on the second lateral portion; a top wall (53, 139, 437) and a bottom wall (55, 141, 439), wherein the top wall (53, 139, 437) and bottom wall (55, 141, 439) are coupled in a spaced relationship to form a hollow region between the top wall (53, 139, 437) and the bottom wall (55, 141, 439), the bottom wall (55, 141, 439) having a center portion, a first lateral portion, and a second lateral portion, a first closing member (52, 56, 58, 152, 156, 252, 452,456) formed on the first lateral portion, and a second closing member (54, 60, 62, 154, 158, 254, 454, 460) formed on the second lateral portion; a sealing member (72, 472) formed form a see-through material for covering the closing dressing bolster (46, 146, 246, 446) and providing a seal over the closing dressing bolster (46, 146, 246, 446,) and a patient's epidermis
A coating applied on at least a portion of an inner surface of an aluminum monobloc container including an end portion and a sidewall portion formed from a coating composition suitable for use in metal packaging coating applications that includes at least 15 weight percent of a polyester polymer that includes one or more heterocyclic groups having a ring that includes one or more nitrogen atoms and one or more carbon atoms of carbonyl groups, based on the total nonvolatile weight of the coating.
A method for sample analysis employing an ultrasound transducer that is adapted to be heat-conductively coupled to a sample, comprising: controlling the ultrasound transducer that is capable of being operated at at least two frequencies including a main frequency and at least one alternative frequency, wherein the ultrasound transducer is operated at the main frequency for generating ultrasound waves that are to be coupled into the sample; and at one of the alternative frequencies for generating heat in the ultrasound transducer due to electric power absorption of the ultrasound transducer, wherein the heat is used for heating the sample due to conduction of heat generated in the ultrasound transducer. controlling the ultrasound transducer that is capable of being operated at at least two frequencies including a main frequency and at least one alternative frequency, wherein the ultrasound transducer is operated at the main frequency for generating ultrasound waves that are to be coupled into the sample; and at one of the alternative frequencies for generating heat in the ultrasound transducer due to electric power absorption of the ultrasound transducer, wherein the heat is used for heating the sample due to conduction of heat generated in the ultrasound transducer.