mhurhangee/ep-ind-claims huggingface dataset:
An architecture for an aircraft braking system, the architecture comprising: - a brake for braking a wheel of an undercarriage of the aircraft, the brake comprising friction members and electromechanical actuators (23; 105) for applying a braking force to the fraction members and thereby exerting braking torque on the wheel, each electromechanical actuator comprising an electric motor and a power module; - a computer (11; 101) adapted to be situated in a fuselage of the aircraft and arranged to produce digital control signals (Snp); - a power unit (12; 102) adapted to be situated in the fuselage of the aircraft and arranged to produce an electrical power supply (Pea) for powering the electric motors; and - a junction box (13; 103) adapted to be situated on the undercarriage, the junction box being connected to the computer, to the power unit, and to the electromechanical actuators, the junction box being arranged to receive the electrical power supply and to distribute it to the electromechanical actuators, the junction box including an electrical motor control module (19; 110) that produces digital motor command signals (Snm) from the digital control signals (Snp), the junction box also including an electrical converter module (20; 111) that converts the digital motor command signals (Snm) into analog motor command signals (Sam) for the power modules of the electromechanical actuators. - a brake for braking a wheel of an undercarriage of the aircraft, the brake comprising friction members and electromechanical actuators (23; 105) for applying a braking force to the fraction members and thereby exerting braking torque on the wheel, each electromechanical actuator comprising an electric motor and a power module; - a computer (11; 101) adapted to be situated in a fuselage of the aircraft and arranged to produce digital control signals (Snp); - a power unit (12; 102) adapted to be situated in the fuselage of the aircraft and arranged to produce an electrical power supply (Pea) for powering the electric motors; and - a junction box (13; 103) adapted to be situated on the undercarriage, the junction box being connected to the computer, to the power unit, and to the electromechanical actuators, the junction box being arranged to receive the electrical power supply and to distribute it to the electromechanical actuators, the junction box including an electrical motor control module (19; 110) that produces digital motor command signals (Snm) from the digital control signals (Snp), the junction box also including an electrical converter module (20; 111) that converts the digital motor command signals (Snm) into analog motor command signals (Sam) for the power modules of the electromechanical actuators.
Hob system having 1.1. at least one heating unit for heating food, and 1.2. at least one fume extraction device for extracting cooking fumes downwards, comprising 1.2.1. at least one inflow opening for the inflow of cooking fumes, and 1.2.2. at least one fan which for suctioning the cooking fumes at the at least one inflow opening has a fan wheel that is mounted so as to be rotatable about a rotation axis, 1.3. wherein the rotation axis is oriented so as to be inclined in relation to a horizontal plane and to a vertical direction, characterized by 1.4. a vertical overall height of at most 300 mm. 1.1. at least one heating unit for heating food, and 1.2. at least one fume extraction device for extracting cooking fumes downwards, comprising 1.2.1. at least one inflow opening for the inflow of cooking fumes, and 1.2.2. at least one fan which for suctioning the cooking fumes at the at least one inflow opening has a fan wheel that is mounted so as to be rotatable about a rotation axis, 1.2.1. at least one inflow opening for the inflow of cooking fumes, and 1.2.2. at least one fan which for suctioning the cooking fumes at the at least one inflow opening has a fan wheel that is mounted so as to be rotatable about a rotation axis, 1.3. wherein the rotation axis is oriented so as to be inclined in relation to a horizontal plane and to a vertical direction, characterized by 1.4. a vertical overall height of at most 300 mm.
An image-sensor fixing structure comprising: an imaging optical system; and an image sensor configured to receive light of an image formed by the imaging optical system, wherein the image sensor has an imaging surface covered by a covering glass, wherein the imaging surface includes: an effective region, in which light of an image formed by the imaging optical system is received, and a peripheral region (E1, E2) outside the effective region, and wherein a body member holding the imaging optical system is fixed to the peripheral region (E1, E2) of the covering glass covering the imaging surface, wherein the peripheral region (E1, E2) being outside the range of an image circle of the imaging surface. an imaging optical system; and an image sensor configured to receive light of an image formed by the imaging optical system, wherein the image sensor has an imaging surface covered by a covering glass, wherein the imaging surface includes: an effective region, in which light of an image formed by the imaging optical system is received, and a peripheral region (E1, E2) outside the effective region, and wherein a body member holding the imaging optical system is fixed to the peripheral region (E1, E2) of the covering glass covering the imaging surface, wherein the peripheral region (E1, E2) being outside the range of an image circle of the imaging surface. an effective region, in which light of an image formed by the imaging optical system is received, and a peripheral region (E1, E2) outside the effective region, and wherein a body member holding the imaging optical system is fixed to the peripheral region (E1, E2) of the covering glass covering the imaging surface, wherein the peripheral region (E1, E2) being outside the range of an image circle of the imaging surface.
A cleaning device unit (1, 101) for cleaning a vertically immovable vertical filter surface of a filter net of a pulp dryer's fan tower, which cleaning device unit (1, 101) comprises - movement means for moving a cleaning module along the immovable filter surface, wherein the cleaning module comprises - a blow part, which is arranged to blow air to the filter surface to be cleaned, and - a suction part, which is arranged in horizontal direction at a distance from the blow part, and which suction part is arranged to suck air from the filter surface to be cleaned, where the blow part is arranged to blow through the filter net towards the suction part characterised in that the cleaning device unit (1, 101) comprises a movable encased base unit, into which is arranged one or more of the following: - a suction device, - a blow device, - at least one hose reel (11, 11') for suction and/or supply air connections (29, 29', 27), which are to be arranged in contact with the cleaning module, - a power source, such as a motor, for moving the cleaning module along the filter surface to be cleaned, - a waste space, preferably arranged inside the hose reel (11, 11'), - connection guides, by means of which the suction and/or supply air connections (29, 29', 27) are arranged around the hose reel (11, 11'), and/or - a cable reel, wherein the cleaning device unit (1, 101) comprises transfer means (13, 13') arranged in connection with the base unit for moving the cleaning device unit (1, 101) from one fan tower to a second fan tower. - movement means for moving a cleaning module along the immovable filter surface, wherein the cleaning module comprises - a blow part, which is arranged to blow air to the filter surface to be cleaned, and - a suction part, which is arranged in horizontal direction at a distance from the blow part, and which suction part is arranged to suck air from the filter surface to be cleaned, - a suction device, - a blow device, - at least one hose reel (11, 11') for suction and/or supply air connections (29, 29', 27), which are to be arranged in contact with the cleaning module, - a power source, such as a motor, for moving the cleaning module along the filter surface to be cleaned, - a waste space, preferably arranged inside the hose reel (11, 11'), - connection guides, by means of which the suction and/or supply air connections (29, 29', 27) are arranged around the hose reel (11, 11'), and/or - a cable reel,
Method for preparing concrete granulate for subsequent recycling of the concrete granulate, comprising the following method steps: a. Filling an at least partially gas-tight container with concrete granulate; b. Supplying a volume flow of gas comprising CO2 into the container as a function of a measure of CO2 absorption by the concrete granulate in the container determined by at least one sensor (8,9); c. Determining whether a predetermined CO2 saturation of the concrete granulate between 5 kg CO2 per 1000 kg and 15 kg CO2 per 1000 kg has been reached, and otherwise continuing method step b; d. Removing the CO2-enriched concrete granulate. a. Filling an at least partially gas-tight container with concrete granulate; b. Supplying a volume flow of gas comprising CO2 into the container as a function of a measure of CO2 absorption by the concrete granulate in the container determined by at least one sensor (8,9); c. Determining whether a predetermined CO2 saturation of the concrete granulate between 5 kg CO2 per 1000 kg and 15 kg CO2 per 1000 kg has been reached, and otherwise continuing method step b; d. Removing the CO2-enriched concrete granulate.
Sucroferric oxyhydroxide particles, comprising a mixture of iron -oxyhydroxide, sucrose and one or more starches, wherein: i) at least 40% by volume of the particles in the particle size distribution are between 4 to 200 μm and ii) the particles have a d50 by volume in the particle size distribution between 30 μm to 80 μm. wherein the particle size distribution is measured by laser diffraction as herein defined. i) at least 40% by volume of the particles in the particle size distribution are between 4 to 200 μm and ii) the particles have a d50 by volume in the particle size distribution between 30 μm to 80 μm.
A fired heat exchanger comprising an outer jacket, a combustion chamber, a condensate tank and a chamber for a liquid encased in the outer jacket which features a liquid inlet and outlet (7,8), where inside the chamber there is a set of vertical tubular elements for the flow of the fumes and at least one transverse baffle, and where the ends of the tubular elements are anchored in a sieve bottom of the combustion chamber on the one side of the tubular elements, and in a sieve wall of the condensate tank featuring gas and condensate discharge stub pipes on the opposite side of the tubular elements, wherein mounted close to the sieve bottom of the combustion chamber, inside the chamber for the liquid, is a horizontal top baffle with a single central opening for the flow of the liquid, characterised in that the horizontal top baffle is fitted with at least one vertical spiral baffle adhering tightly to the sieve bottom and the top horizontal baffle, where the spiral baffle forms spiral ducts for the flow of the liquid under the sieve bottom.
Submarine with a tower construction, the interior of which is accessible via an opening which is formed on an outer wall of the tower construction and is closable by a door which is coupled pivotably to the opening edge, characterized in that an actuating lever for opening and closing the door is arranged pivotably in the region of the opening edge in the tower construction and is coupled in terms of movement to the door.
A method for receiving a downlink signal from an eNode B at a user equipment in a wireless communication system, the method comprising: receiving downlink control information from the eNode B through an enhanced physical downlink control channel, EPDCCH, of a first subframe; and receiving downlink data through a physical downlink shared channel, PDSCH, of a second subframe, wherein the downlink data through the PDSCH of the second subframe is indicated by the downlink control information received in the EPDCCH of the first subframe, and wherein the second subframe corresponds to a subframe capable of performing a downlink transmission among subframes appearing after a predetermined number of subframe from the first subframe. receiving downlink control information from the eNode B through an enhanced physical downlink control channel, EPDCCH, of a first subframe; and receiving downlink data through a physical downlink shared channel, PDSCH, of a second subframe, wherein the downlink data through the PDSCH of the second subframe is indicated by the downlink control information received in the EPDCCH of the first subframe, and wherein the second subframe corresponds to a subframe capable of performing a downlink transmission among subframes appearing after a predetermined number of subframe from the first subframe.
Process for producing a polycondensate powder dispersion, characterized in that it comprises at least one step of polycondensation: i) of at least one diester and at least one diamine, and/or ii) of at least one amino ester, with stirring, in a solvent that can dissolve both the diamine and the diester and/or the amino ester, but not the polyamide which forms during the polycondensation, at a temperature included in the range of from 50°C to 120°C and in the presence of silica, such that a powder precipitate dispersed in the solvent is obtained, and the polycondensate is recovered in powder form. i) of at least one diester and at least one diamine, and/or ii) of at least one amino ester,
Automatic door or window system (10; 26) having a drive device, a control unit, at least one sensor unit (A-E) and at least one leaf/sash (16; 28) able to be driven by way of the drive device, wherein the at least one sensor unit (A-E) and the control unit form subscribers of a data transmission system and are connected to one another via said data transmission system, characterized in that the at least one sensor unit (A-E) comprises at least two slots (KA, KI, SIS, SIO), which are used for coding different positions of the sensor unit (A-E) on the door or on the window, for connecting the sensor unit (A-E) to the data transmission system and the at least one sensor unit (A-E) furthermore comprises at least one third slot (Out) to further connect the data transmission system and to connect a further subscriber to the data transmission system.
A multicomponent oxide glass having a composition comprising: 45 mol% to 53 mol% SiO 2; 22 mol% to 30 mol% B 2 O 3; 5 mol% to 9 mol% Al 2 O 3; 0.02 mol% to 0.10 mol% Sb 2 O 3; 0 mol% to 18 mol% Li 2 O; 0 mol% to 18 mol% Na 2 O; 0 mol% to 18 mol% K 2 O; 0 mol% to 13 mol% MgO; 0 mol% to 13 mol% CaO; 0 mol% to 13 mol% BaO; and 0 mol% to 13 mol% ZnO, wherein when a total content of Li 2 O, Na 2 O, and K 2 O is X mol% and a total content of MgO, CaO, BaO, and ZnO is Y mol%, formulae and: 11 ≤ X ≤ 18 and 14 ≤ X + Y ≤ 24 hold, and a value of βOH calculated from formula: β OH = α / t where α represents a height of an absorption peak due to OH groups, observed in a range of 3400 cm -1 to 3800 cm -1 of an infrared absorption spectrum in no unit and t represents a thickness of the glass in cm, is 4 cm -1 or more. 45 mol% to 53 mol% SiO 2; 22 mol% to 30 mol% B 2 O 3; 5 mol% to 9 mol% Al 2 O 3; 0.02 mol% to 0.10 mol% Sb 2 O 3; 0 mol% to 18 mol% Li 2 O; 0 mol% to 18 mol% Na 2 O; 0 mol% to 18 mol% K 2 O; 0 mol% to 13 mol% MgO; 0 mol% to 13 mol% CaO; 0 mol% to 13 mol% BaO; and 0 mol% to 13 mol% ZnO, wherein when a total content of Li 2 O, Na 2 O, and K 2 O is X mol% and a total content of MgO, CaO, BaO, and ZnO is Y mol%, formulae and: 11 ≤ X ≤ 18 and 14 ≤ X + Y ≤ 24 hold, and a value of βOH calculated from formula: β OH = α / t where α represents a height of an absorption peak due to OH groups, observed in a range of 3400 cm -1 to 3800 cm -1 of an infrared absorption spectrum in no unit and t represents a thickness of the glass in cm, is 4 cm -1 or more.
Planar element (24, 25), designed as a curtain for a window, as a partition wall or partition wall, as a ceiling part or wall part for active compensation of background noise in an interior space, having a plurality of identical anti-noise modules which are connected to one another and each have at least one microphone, an associated electronic circuit having a combination of filters for adapting phase and amplitude and in each case one associated central electronically controllable amplifier (6, 9) or loudspeaker assigned to the anti-sound module and in each case one associated loudspeaker, characterized in that the planar element (24, 25) has over its width on a plurality of different lines in each case a plurality of anti-sound modules (12, 20) which can be controlled analogously, which measure at most 50 mm in thickness, at most 150 mm long and at most 100 mm wide, having a weight of at most 200 grams per anti-sound module (12, 20), so that they are integrated into the planar element (24, 25) and each together form each a chain of anti-sound modules (12, 20) extending along these lines, which are arranged in succession via electrical supply wires (3, 11, 22) connecting them together in the form of two electrical wires each extending along this line, the chain being connected in parallel with its supply wires (3, 11, 22) and being supplied with a low-voltage power by two electrical supply wires or supply rails which run transversely to the wires of the chains.
A method in a Device-to-Device, D2D, capable User Equipment, UE,, for determining link quality of a D2D signal or D2D channel, the method comprising: - receiving a D2D signal or channel transmitted from another D2D capable UE; - if detection of the D2D signal or channel followed by a Cyclic Redundancy Check, CRC, of the D2D signal or channel is determined to be successful, wherein the D2D signal or channel followed by a Cyclic Redundancy Check, CRC, of the D2D signal or channel is determined to be successful if the CRC is successful, identifying the identity of the other D2D capable UE; - measuring received signal power on resources of the D2D signal or channel; - measuring signal strength indicator on other resources different from the resources where the received signal power is measured; and - determining link quality based on the measured received signal power and based on the measured signal strength indicator, wherein determining the link quality according to: Link quality = NPrB × measured received signal power / measured signal strength indicator; where NPrB is a number of physical resource blocks over the measurement bandwidth used for D2D communication. - receiving a D2D signal or channel transmitted from another D2D capable UE; - if detection of the D2D signal or channel followed by a Cyclic Redundancy Check, CRC, of the D2D signal or channel is determined to be successful, wherein the D2D signal or channel followed by a Cyclic Redundancy Check, CRC, of the D2D signal or channel is determined to be successful if the CRC is successful, identifying the identity of the other D2D capable UE; - measuring received signal power on resources of the D2D signal or channel; - measuring signal strength indicator on other resources different from the resources where the received signal power is measured; and - determining link quality based on the measured received signal power and based on the measured signal strength indicator, wherein
A laminated light-guiding plate, comprising: a plurality of glass sheets having a refractive index nd of 1.56 or more, and having a thickness of 1.0 mm or less, an entrance member which is arranged at a position of 30 mm or less from an end surface of each of the glass sheets and is configured to allow an image signal to enter the glass sheets; and a reflecting mirror portion or reflecting mirror portions formed in an inside of the entrance member. a plurality of glass sheets having a refractive index nd of 1.56 or more, and having a thickness of 1.0 mm or less, an entrance member which is arranged at a position of 30 mm or less from an end surface of each of the glass sheets and is configured to allow an image signal to enter the glass sheets; and a reflecting mirror portion or reflecting mirror portions formed in an inside of the entrance member.
An X-ray generator comprising: an X-ray tube to generate X-rays; and a high-voltage generator to supply a voltage to the X-ray tube, wherein the high-voltage generator comprises: a high-voltage tank to generate a high voltage; a switch connected to an output terminal of the high-voltage tank; and a resistor to receive a wave tail voltage according to an on or off status of the switch, CHARACTERIZED IN THAT the switch is arranged inside the high-voltage tank and the resistor is located outside the high-voltage tank 1. 1 Figures 5 - 10C and the corresponding description thereof an X-ray tube to generate X-rays; and a high-voltage generator to supply a voltage to the X-ray tube, wherein the high-voltage generator comprises: a high-voltage tank to generate a high voltage; a switch connected to an output terminal of the high-voltage tank; and a resistor to receive a wave tail voltage according to an on or off status of the switch, a high-voltage tank to generate a high voltage; a switch connected to an output terminal of the high-voltage tank; and a resistor to receive a wave tail voltage according to an on or off status of the switch,