mhurhangee/ep-ind-claims huggingface dataset:
Method for injecting fuel by an air/fuel mixer system having a central geometric axis of symmetry (X'X), in a combustion chamber of a gas turbine, the injection of fuel being effected in the mixer system according to an axis (C'C) parallel to the axis of symmetry (X'X) of this system and separate from this axis (X'X), characterised in that the combustion chamber, arranged in a housing, is angularly offset (ΔA) in relation to the housing, the injection of fuel being performed by an injector integral with the housing and the mixer system being integral with the combustion chamber.
Base station for cleaning and/or emptying a suctioned-dust compartment of a first vacuum cleaner, which base station comprises a base dust chamber, a first air inlet that is in fluid communication with the base dust chamber, and a first air outlet that is in fluid communication with the base dust chamber, wherein the air inlet and the air outlet can be connected to an air channel of the first vacuum cleaner in terms of flow, such that dust contained in the suctioned-dust compartment of the first vacuum cleaner can be conveyed into the base dust chamber by means of a fan of the first vacuum cleaner, wherein the base station comprises a second air inlet, which can be connected to the base dust chamber in terms of flow, and a second air outlet, which can be connected to the base dust chamber in terms of flow, wherein the second air inlet and the second air outlet can be connected to an air channel of a second vacuum cleaner in terms of flow such that dust contained in a suctioned-dust compartment of the second vacuum cleaner can be conveyed into the base dust chamber by means of the fan of the first vacuum cleaner.
Radial conveyor, in particular for suction hoods, having a revolving rotation axis and comprising: - a housing with a first axial intake opening and a second axial intake opening opposite the first intake opening and a radial air outlet opening, - a conveying group (6, 7) arranged inside the housing and having an electric motor and an impeller connected with a drive shaft of the electric motor, wherein the electric motor is fixed to the housing cantilevered and in a non rotatable manner through a plurality of support portions projecting from an edge of the first intake opening, wherein the intake openings (3, 4) are circular and coaxial with the impeller and an inner diameter of the edge of the intake opening (3, 4) is smaller than the inner diameter of the end of the impeller facing it, characterized in that the axially outer ends of the blades of the impeller have a curvature which is substantially identical to the curvature of the edge of the intake openings (3, 4) sectioned according to a plane that is radial with respect to the rotation axis. - a housing with a first axial intake opening and a second axial intake opening opposite the first intake opening and a radial air outlet opening, - a conveying group (6, 7) arranged inside the housing and having an electric motor and an impeller connected with a drive shaft of the electric motor,
A method of controlling Radio Resource Control, RRC, state switching in a wireless communication system, characterized by adaptively controlling the RRC state switching between an idle state and a connected state for a user equipment based on at least a detected current mobility measure for said user equipment, the method further comprising: providing a timer table comprising predetermined RRC timer values based on at least specific mobility measures for user equipment, detecting at least a current mobility measure for the user equipment; and selecting an optimal RRC timer for said user equipment from said provided timer table based on said detected at least current mobility measure; and said controlling step comprises adaptively controlling the RRC state switching for said user equipment based on said selected optimal RRC timer. providing a timer table comprising predetermined RRC timer values based on at least specific mobility measures for user equipment, detecting at least a current mobility measure for the user equipment; and selecting an optimal RRC timer for said user equipment from said provided timer table based on said detected at least current mobility measure; and said controlling step comprises adaptively controlling the RRC state switching for said user equipment based on said selected optimal RRC timer.
A motor, comprising: a first connection terminal comprising a circuit board, wherein the circuit board comprises a coil circuit; a second connection terminal comprising a permanent magnet, wherein the permanent magnet is adjacent to the coil circuit, wherein there is a gap between the permanent magnet and the coil circuit, and the permanent magnet has an axial magnetization structure; and a lens module (500, 510); wherein one of the first connection terminal and the second connection terminal is a rotator, and wherein the other of the first connection terminal and the second connection terminal is a stator, characterized in that the rotator is fixedly connected to the lens module (500, 510) and sleeved over the lens module (500, 510), and the stator is movably connected to the lens module (500, 510) and sleeved over the lens module (500, 510). a first connection terminal comprising a circuit board, wherein the circuit board comprises a coil circuit; a second connection terminal comprising a permanent magnet, wherein the permanent magnet is adjacent to the coil circuit, wherein there is a gap between the permanent magnet and the coil circuit, and the permanent magnet has an axial magnetization structure; and a lens module (500, 510); wherein one of the first connection terminal and the second connection terminal is a rotator, and wherein the other of the first connection terminal and the second connection terminal is a stator, characterized in that the rotator is fixedly connected to the lens module (500, 510) and sleeved over the lens module (500, 510), and the stator is movably connected to the lens module (500, 510) and sleeved over the lens module (500, 510).
Bicycle rim comprising a wall, a plurality of perforated spoke attachment seats (4, 11), and an insert at at least one of said perforated seats (4, 11), wherein said insert comprises a first surface configured for shape-coupling with the rim in the proximity of said at least one spoke attachment seat of the rim, and has a through hole, said insert being constrained to said rim and comprising an edge projecting along at least one section of said first surface, wherein said wall is made of composite material comprising structural fibers incorporated in a polymeric material, preferably thermosetting, and wherein the insert is co-moulded with the rim, characterised in that at least over the edge of said insert there is only the polymeric material. wherein said insert comprises a first surface configured for shape-coupling with the rim in the proximity of said at least one spoke attachment seat of the rim, and has a through hole, said insert being constrained to said rim and comprising an edge projecting along at least one section of said first surface, wherein said wall is made of composite material comprising structural fibers incorporated in a polymeric material, preferably thermosetting, and wherein the insert is co-moulded with the rim, characterised in that at least over the edge of said insert there is only the polymeric material.
A method for refining a magnetic domain of a grain-oriented electrical steel strip, comprising a steel strip supporting roll position adjusting step of controlling a position of the steel strip in a vertical direction while supporting the steel strip proceeding along a production line, a laser irradiating step of forming a groove on a surface of the steel strip by irradiating a laser beam onto the surface of the steel strip to melt the steel strip, a detecting step of detecting a defect in the groove formed on the surface of the steel strip while the steel strip proceeds, and a correcting step of adjusting a laser focal point position of the steel strip according to a result measured in the detecting step; wherein the correcting step includes a step of setting a depth of the groove of a steady state as a reference value, a calculating step of comparing a detected depth of the groove with the reference value, and a position adjusting step of adjusting a position of a steel strip supporting roll or a position of a condensing mirror in accordance with a depth deviation of the groove detected in the calculating step to adjust a focus position with respect to the steel strip, and wherein in the detecting step, the groove of the steel strip is measured by a leakage magnetic flux measuring method. a steel strip supporting roll position adjusting step of controlling a position of the steel strip in a vertical direction while supporting the steel strip proceeding along a production line, a laser irradiating step of forming a groove on a surface of the steel strip by irradiating a laser beam onto the surface of the steel strip to melt the steel strip, a detecting step of detecting a defect in the groove formed on the surface of the steel strip while the steel strip proceeds, and a correcting step of adjusting a laser focal point position of the steel strip according to a result measured in the detecting step; wherein the correcting step includes a step of setting a depth of the groove of a steady state as a reference value, a calculating step of comparing a detected depth of the groove with the reference value, and a position adjusting step of adjusting a position of a steel strip supporting roll or a position of a condensing mirror in accordance with a depth deviation of the groove detected in the calculating step to adjust a focus position with respect to the steel strip, and wherein in the detecting step, the groove of the steel strip is measured by a leakage magnetic flux measuring method.
A game controller comprising: a grip; a rim located on the grip, the rim defining an aperture; a paddle-actuatable sensor accessible through the aperture; and a pivot spaced apart from the aperture, the pivot being configured to removably affix a selected paddle accessory to the game controller and to translate a touch applied to the selected paddle accessory outside of the aperture to an actuation of the paddle-actuatable sensor inside the aperture; wherein when the selected paddle accessory is removably affixed to the game controller the selected paddle accessory rotates relative to the pivot in response to a touch force being applied to the selected paddle accessory to actuate the paddle-actuatable sensor. a grip; a rim located on the grip, the rim defining an aperture; a paddle-actuatable sensor accessible through the aperture; and a pivot spaced apart from the aperture, the pivot being configured to removably affix a selected paddle accessory to the game controller and to translate a touch applied to the selected paddle accessory outside of the aperture to an actuation of the paddle-actuatable sensor inside the aperture; wherein when the selected paddle accessory is removably affixed to the game controller the selected paddle accessory rotates relative to the pivot in response to a touch force being applied to the selected paddle accessory to actuate the paddle-actuatable sensor.
Hydraulic binder comprising, as percentage by mass: - from 17 to 55% of a Portland cement, the particles whereof have a D50 that lies in the range 2 μm to 11 μm; - at least 5% of silica fume; - from 36 to 70% of a mineral addition A1, the particles whereof have a D50 that lies in the range 15 to 150 μm; the sum of these percentages lying in the range 80 to 100%; the sum of the percentages of cement and of silica fume being greater than 28%; the mineral addition A1 being selected from slags, pozzolanic additions or siliceous additions such as quartz, silico-calcareous mineral additions, calcareous additions such as calcium carbonate or mixtures thereof. - from 17 to 55% of a Portland cement, the particles whereof have a D50 that lies in the range 2 μm to 11 μm; - at least 5% of silica fume; - from 36 to 70% of a mineral addition A1, the particles whereof have a D50 that lies in the range 15 to 150 μm;
A method for controlling and/or regulating a wet-running clutch of a motor vehicle, in particular at least one of the clutches or both clutches of a dual clutch of a motor vehicle, in particular for the start-up process and/or for switching operations of a motor vehicle, wherein with the aid of a control device a specific clutch torque (M K) is adjusted and a specific clutch pressure (P K) is applied to the clutch to adjust this specific clutch torque (M K) and the clutch is operated with a specific clutch slip (n s), wherein the functional dependency of the clutch torque (M K) on the clutch pressure (P K) is defined by at least one clutch characteristic curve for a specific range, stored in particular in the control device, wherein the clutch characteristic curve also inherently has a specific friction value or the stored clutch characteristic curve is based on an inherent friction value, and wherein initially a friction value correction factor is defined and/or determined according to a desired clutch torque (MK soll) and/or according to the clutch slip (n s) and/or according to the clutch temperature and/or according to the state of aging of the clutch, characterized in that with the aid of the friction value correction factor based on the clutch characteristic curve a corrected clutch torque (M Ksoll-Korrektur) is determined and/or calculated, that by means of the clutch characteristic curve the corrected clutch pressure (P Ksoll-Korrektur) associated with this corrected clutch torque (M Ksoll-Korrektur) is then determined, wherein the corrected clutch pressure (P Ksoll-Korrektur) determined in this way is then also adjusted to the clutch.
- A susceptor ink comprising a conductive material in conjunction with one or more vehicles configured for printing on a microwaveable packaging comprising: (a) at least one metallic particle; (b) at least one varnish; and (c) at least one solvent; characterised in that the at least one metallic particle is aluminium present at 19.4% (w/w); the at least one varnish is aliphatic polyurethane present at 12.8% (w/w) and the at least one solvent is a mixture of alcohol and ethyl acetate present at 67.8% (w/w).
A method of manufacturing a construction panel comprising the steps of laying a plurality of rigid support members together, each rigid support member having two main planar surfaces (3, 4) with perimeter surfaces extending between these main planar surfaces (3, 4), laying the plurality of rigid support members so that each rigid support member has at least one perimeter surface in an abutting relationship with the perimeter surface of an adjacent rigid support member, and bridging at least part of the length of abutting perimeter surfaces with at least one connector means for connecting the plurality of rigid support members together into a predetermined shape and size of modular rigid panel member, the method further comprising manufacturing a sandwich type construction panel by forming a second similar shape and size of modular rigid panel member using the same method and placing an insulation means in a gap between the modular rigid panel members characterised in that the connector means comprises means for mechanically fixing the connector means onto the planar surfaces (3, 4) of two adjacent rigid outer support members, the mechanical fixing means comprising spikes, the spikes protruding in a spaced apart configuration from the main plane of the mechanical fixing means, and wherein the method comprises mechanically fixing the connector means onto the planar surfaces (3, 4) of two adjacent rigid support members using the spikes.
A method for controlling the magnitude of mechanical forces exerted by a solid ammonia storage material on walls of a container holding the storage material inside its interior volume when the storage material is undergoing saturation/resaturation with ammonia inside said storage container, said method comprising: a. determining a limit for the mechanical strength of the container in terms of a hydraulic pressure, hereinafter P LIMIT, or a hydraulic force, hereinafter F LIMIT, in its interior volume under which the walls of container do not undergo plastic deformation, or do not undergo deformation of more than 200% of a deformation at a yield point of the container walls; b. using a relationship between i. a temperature for ammonia saturation/resaturation process of the storage material, hereinafter T SAT, and ii. the hydraulic pressure P MAT, or equivalent mechanical force F MAT generated by the storage material during saturation/resaturation at said temperature T SAT, to identify a minimum temperature, hereinafter T SATMIN, of the saturation/resaturation process where P MAT, or F MAT, exerted by the storage material is kept below the limit for the mechanical strength in terms of P LIMIT, or F LIMIT, of the container by carrying out the saturation/resaturation process at the temperature T SAT fulfilling the condition of T SAT ≥ T SATMIN, the relationship being established by an experimental mapping procedure in which experimental data points are obtained, or via computer simulations. a. determining a limit for the mechanical strength of the container in terms of a hydraulic pressure, hereinafter P LIMIT, or a hydraulic force, hereinafter F LIMIT, in its interior volume under which the walls of container do not undergo plastic deformation, or do not undergo deformation of more than 200% of a deformation at a yield point of the container walls; b. using a relationship between i. a temperature for ammonia saturation/resaturation process of the storage material, hereinafter T SAT, and ii. the hydraulic pressure P MAT, or equivalent mechanical force F MAT generated by the storage material during saturation/resaturation at said temperature T SAT, to identify a minimum temperature, hereinafter T SATMIN, of the saturation/resaturation process where P MAT, or F MAT, exerted by the storage material is kept below the limit for the mechanical strength in terms of P LIMIT, or F LIMIT, of the container by carrying out the saturation/resaturation process at the temperature T SAT fulfilling the condition of T SAT ≥ T SATMIN, the relationship being established by an experimental mapping procedure in which experimental data points are obtained, or via computer simulations. i. a temperature for ammonia saturation/resaturation process of the storage material, hereinafter T SAT, and ii. the hydraulic pressure P MAT, or equivalent mechanical force F MAT generated by the storage material during saturation/resaturation at said temperature T SAT,
Method for producing a hollow body (1, 1a, 1') or hollow space foamed with insulation material, wherein an expandable starting material of the insulation material is supplied to a plastic extrusion apparatus, activated in the latter under pressure, and, at the time of the discharge from the latter, expanded into the hollow body or the hollow space with such a high volume expansion gradient that the insulation material formed by the expansion completely fills the cross-section of the hollow body or hollow space immediately at the time of the introduction, wherein the high volume expansion gradient of the starting material, at the time of the discharge from the extrusion apparatus, is controlled by a special nozzle geometry (17; 17'; 17"; 17"') which imprints a predetermined cross-section shape on the insulation material flow, characterized in that, as a result of the nozzle geometry (17; 17'; 17"; 17"), the implementation consists first of a gradual cross-section reduction of the insulation material flow with small gradient over a large length, then of maintaining the cross-section constant over a small length, and then of a gradual cross-section reduction with large gradient over a small length, and, subsequently, of a gradual cross-section increase with medium gradient over a medium length, the latter being followed by an exit through a spray head with a plurality of spray openings.
A method of performing an efficient excitation Vector Quantization, VQ, corresponding to a residual signal derived from a speech or audio signal using a codebook in a speech or audio noise feedback coding, NFC, system, the NFC system including at least one noise feedback loop, the codebook including N VQ codevectors, where N is an integer greater than one, the method comprising: (a) deriving N correlation values using the NFC system, each of the N correlation values corresponding to a respective one of the N VQ codevectors; (b) combining each of the N correlation values derived from cross-correlation between the ZERO-STATE response and the ZERO- INPUT response calculated with a corresponding one of N ZERO-STATE energies of the NFC system, thereby producing N minimization values each corresponding to a respective one of the N VQ codevectors; and (c) selecting a preferred one of the N VQ codevectors corresponding to each of a series of residual vectors included in the residual signal based on the N minimization values, whereby the preferred VQ codevector is usable as an excitation quantization corresponding to the corresponding residual signal vector. (a) deriving N correlation values using the NFC system, each of the N correlation values corresponding to a respective one of the N VQ codevectors; (b) combining each of the N correlation values derived from cross-correlation between the ZERO-STATE response and the ZERO- INPUT response calculated with a corresponding one of N ZERO-STATE energies of the NFC system, thereby producing N minimization values each corresponding to a respective one of the N VQ codevectors; and (c) selecting a preferred one of the N VQ codevectors corresponding to each of a series of residual vectors included in the residual signal based on the N minimization values, whereby the preferred VQ codevector is usable as an excitation quantization corresponding to the corresponding residual signal vector.
A headphone system comprising: an acoustic transducer to convert a driver signal into an acoustic signal; a microphone to provide a feedback signal; a first processing component configured to process the feedback signal through a feedback transfer function to provide an anti-noise signal, the driver signal being based at least in part upon the anti-noise signal; characterized in that the headphone system further comprises: a filter to filter the driver signal and provide a reference signal, the filter configured to have a second transfer function that is inverse of the feedback transfer function; and a second processing component to compare the feedback signal to the reference signal to determine a feedback instability based upon the comparison. an acoustic transducer to convert a driver signal into an acoustic signal; a microphone to provide a feedback signal; a first processing component configured to process the feedback signal through a feedback transfer function to provide an anti-noise signal, the driver signal being based at least in part upon the anti-noise signal; characterized in that the headphone system further comprises: a filter to filter the driver signal and provide a reference signal, the filter configured to have a second transfer function that is inverse of the feedback transfer function; and a second processing component to compare the feedback signal to the reference signal to determine a feedback instability based upon the comparison. a filter to filter the driver signal and provide a reference signal, the filter configured to have a second transfer function that is inverse of the feedback transfer function; and a second processing component to compare the feedback signal to the reference signal to determine a feedback instability based upon the comparison.