mhurhangee/ep-ind-claims huggingface dataset:
An indoor unit of an air conditioner, comprising: an indoor unit main body including an inlet and an outlet; a heat exchanger that performs heat exchange on air drawn in from the inlet; and a cross-flow fan configured to blow out air, which has undergone heat exchange performed by the heat exchanger, from the outlet, wherein the cross-flow fan includes a blow-out flow path formed by a lower wall, left and right side walls, and an upper wall so that a cross-sectional area gradually increases downward, with the blow-out flow path guiding blown-out air to the outlet, a movement mechanism configured to switch between a stored state that does not project an element (26S, 26L, 26U) forming the blow-out flow path including the side walls out of the outlet and a projected state that projects at least the side walls out of the outlet, an indoor control unit configured to control the movement mechanism to switch between the stored state, in which the movable side walls do not project out of the outlet, and the projected state, in which the movable side walls project out of the outlet wherein the movement mechanism is further configured to be in the projected state when an air conditioning operation is performed, and the movement mechanism is configured to be in the stored state when an air conditioning operation is stopped, and characterized in that the side walls are configured to entirely cover transverse sides of the outlet in the projected state. an indoor unit main body including an inlet and an outlet; a heat exchanger that performs heat exchange on air drawn in from the inlet; and a cross-flow fan configured to blow out air, which has undergone heat exchange performed by the heat exchanger, from the outlet, wherein the cross-flow fan includes a blow-out flow path formed by a lower wall, left and right side walls, and an upper wall so that a cross-sectional area gradually increases downward, with the blow-out flow path guiding blown-out air to the outlet, a movement mechanism configured to switch between a stored state that does not project an element (26S, 26L, 26U) forming the blow-out flow path including the side walls out of the outlet and a projected state that projects at least the side walls out of the outlet, an indoor control unit configured to control the movement mechanism to switch between the stored state, in which the movable side walls do not project out of the outlet, and the projected state, in which the movable side walls project out of the outlet wherein the movement mechanism is further configured to be in the projected state when an air conditioning operation is performed, and the movement mechanism is configured to be in the stored state when an air conditioning operation is stopped, and characterized in that the side walls are configured to entirely cover transverse sides of the outlet in the projected state.
Hand-held machine tool with a tool holder for receiving a tool along a working axis, a motor, a locking body coupling, which has a wheel on the drive side and a wheel on the output side and a number of locking bodies arranged between the wheel on the drive side and the wheel on the output side, in which the locking bodies may move in relation to one of the wheels and are held in engagement with the one wheel through a spring force for transferring a torque from the wheel on the drive side to the wheel on the output side and for interrupting transfer of the torque when close to a torque exceeding a threshold value, a sensor for recording a measurement signal from movements of the hand-held machine tool, characterised by a bandwidth filter, in the passband of which the product of the speed of the wheel on the drive side with the number of locking bodies lies, and an evaluation unit, to which the measurement signal filtered by the bandwidth filter is supplied and which reduces the speed of the motor in response to the filtered measurement signal exceeding a limit value.
An oxygenator comprising: an inner cylinder unit configured as one of a heat exchange unit or a gas exchange unit by winding a first hollow fiber membrane and; an outer cylinder unit configured as the other of the heat exchange unit or the gas exchange unit by winding a second hollow fiber membrane, wherein the inner cylinder unit and the outer cylinder unit are accommodated in a housing in a state of being disposed to overlap each other in a radial direction so that a blood flow path is formed on an outer side of the first hollow fiber membrane and an outer side of the second hollow fiber membrane, and the housing includes a pair of partition sections (62a, 62b) that partitions each of spaces on both sides in an axial direction from the inner cylinder unit and the outer cylinder unit into a heat medium flow path (58a, 58b) and a gas flow path (60a, 60b), and wherein the partition sections (62a, 62b) are each inserted between end portions of the inner cylinder unit and the outer cylinder unit, a cylindrical intermediate spacer is arranged between the inner cylinder unit and the outer cylinder unit, at least one end portion of the intermediate spacer is located at a part that does not overlap the partition section (62a, 62b) in a radial direction in end portions of the inner cylinder unit and the outer cylinder unit, characterized in that the intermediate spacer is configured to independently support the outer cylinder unit in a state in which a gap is formed between an inner peripheral surface of the intermediate spacer and an outer peripheral surface of the inner cylinder unit. an inner cylinder unit configured as one of a heat exchange unit or a gas exchange unit by winding a first hollow fiber membrane and; an outer cylinder unit configured as the other of the heat exchange unit or the gas exchange unit by winding a second hollow fiber membrane, wherein the inner cylinder unit and the outer cylinder unit are accommodated in a housing in a state of being disposed to overlap each other in a radial direction so that a blood flow path is formed on an outer side of the first hollow fiber membrane and an outer side of the second hollow fiber membrane, and the housing includes a pair of partition sections (62a, 62b) that partitions each of spaces on both sides in an axial direction from the inner cylinder unit and the outer cylinder unit into a heat medium flow path (58a, 58b) and a gas flow path (60a, 60b), and wherein the partition sections (62a, 62b) are each inserted between end portions of the inner cylinder unit and the outer cylinder unit, a cylindrical intermediate spacer is arranged between the inner cylinder unit and the outer cylinder unit, at least one end portion of the intermediate spacer is located at a part that does not overlap the partition section (62a, 62b) in a radial direction in end portions of the inner cylinder unit and the outer cylinder unit, characterized in that the intermediate spacer is configured to independently support the outer cylinder unit in a state in which a gap is formed between an inner peripheral surface of the intermediate spacer and an outer peripheral surface of the inner cylinder unit.
A method for transforming a colorimetric adjustment of a sequence of images from an input color space into an output color space using a transformation table represented with an approximation of first and second order compressed values for converting the input color space of said sequence of images to a desired output color space, characterized in that it comprises: applying a first order approximation to all pixels of different subsets of said sequence of images; and determining if convergence between at least two of the subsets of said sequence of images has been reached and if not, applying a second order approximation to all pixels of different subsets of the subsets of said sequence of images. applying a first order approximation to all pixels of different subsets of said sequence of images; and determining if convergence between at least two of the subsets of said sequence of images has been reached and if not, applying a second order approximation to all pixels of different subsets of the subsets of said sequence of images.
A method for fast and seamless handover in wireless communications between ground base stations (300a...300n) and an aircraft, comprising the steps of: a. identifying ground base stations (300a...300n) along the flight path of said aircraft; b. defining a group of active ground base stations in a geographic area in which said aircraft is traveling; c. using a load balancing method to select for said aircraft a serving ground base station from amongst said group of active ground base stations; d. maintaining communications between said serving base station and said aircraft; and e. synchronizing all active ground base stations such that all ground to air data is forwarded to all of said active ground base stations. a. identifying ground base stations (300a...300n) along the flight path of said aircraft; b. defining a group of active ground base stations in a geographic area in which said aircraft is traveling; c. using a load balancing method to select for said aircraft a serving ground base station from amongst said group of active ground base stations; d. maintaining communications between said serving base station and said aircraft; and e. synchronizing all active ground base stations such that all ground to air data is forwarded to all of said active ground base stations.
Method for estimating friction coefficients of the wheels of a motor vehicle with at least two axles which can be operated independently of each other, comprising the steps of: - defining at least one axle of a motor vehicle as a monitored axle, - defining at least one axle of the motor vehicle which differs from the monitored axle as a compensation axle, - changing at least one wheel torque on the monitored axle, - capturing data in order to estimate current friction coefficients while changing at least one wheel torque on the monitored axle, - simultaneously adapting at least one wheel torque on the compensation axle while changing at least one wheel torque on the monitored axle, - wherein adapting the at least one wheel torque on the compensation axle is performed in such a way that a predetermined total wheel torque is maintained while changing the wheel torque on the monitored axle, - estimating at least one current friction coefficient on the basis of the captured data, characterized in that - changing at least one wheel torque on the monitored axle is performed in steps, wherein the steps comprise horizontal portions on which the wheel torque on the monitored axle is constant. - defining at least one axle of a motor vehicle as a monitored axle, - defining at least one axle of the motor vehicle which differs from the monitored axle as a compensation axle, - changing at least one wheel torque on the monitored axle, - capturing data in order to estimate current friction coefficients while changing at least one wheel torque on the monitored axle, - simultaneously adapting at least one wheel torque on the compensation axle while changing at least one wheel torque on the monitored axle, - wherein adapting the at least one wheel torque on the compensation axle is performed in such a way that a predetermined total wheel torque is maintained while changing the wheel torque on the monitored axle, - estimating at least one current friction coefficient on the basis of the captured data, characterized in that - changing at least one wheel torque on the monitored axle is performed in steps, wherein the steps comprise horizontal portions on which the wheel torque on the monitored axle is constant.
A system comprising: a hydrogen fuel supply source; a hydrogen fuel reservoir in a hydrogen fuel cell-powered device; and a fluid coupling assembly disposed between the hydrogen fuel supply source and the hydrogen fuel reservoir, the fluid coupling assembly comprising: a first coupling member; a second coupling member magnetically engageable with the first coupling member; a valve member disposed within the first coupling member, wherein the valve member is movable between a sealed position in contact with a valve seat and an unsealed position spaced from the valve seat; and a stationary activation member disposed within the second coupling member and configured to move the valve member when the first and second coupling members are magnetically engaged; wherein magnetic engagement of the first coupling member and the second coupling member provides and maintains a mechanical force sufficient to unseal a hydrogen fuel flow path traversing a portion of each coupling member. a hydrogen fuel supply source; a hydrogen fuel reservoir in a hydrogen fuel cell-powered device; and a fluid coupling assembly disposed between the hydrogen fuel supply source and the hydrogen fuel reservoir, the fluid coupling assembly comprising: a first coupling member; a second coupling member magnetically engageable with the first coupling member; a valve member disposed within the first coupling member, wherein the valve member is movable between a sealed position in contact with a valve seat and an unsealed position spaced from the valve seat; and a stationary activation member disposed within the second coupling member and configured to move the valve member when the first and second coupling members are magnetically engaged; wherein magnetic engagement of the first coupling member and the second coupling member provides and maintains a mechanical force sufficient to unseal a hydrogen fuel flow path traversing a portion of each coupling member. a first coupling member; a second coupling member magnetically engageable with the first coupling member; a valve member disposed within the first coupling member, wherein the valve member is movable between a sealed position in contact with a valve seat and an unsealed position spaced from the valve seat; and a stationary activation member disposed within the second coupling member and configured to move the valve member when the first and second coupling members are magnetically engaged; wherein magnetic engagement of the first coupling member and the second coupling member provides and maintains a mechanical force sufficient to unseal a hydrogen fuel flow path traversing a portion of each coupling member.
An optoelectronic sensor, in particular a laser scanner, for detecting objects in a monitoring area with more than one scanning plane, the sensor comprising a light transmitter for transmitting a light beam, a drive, a scanning unit which the drive can set into a periodic movement and having a deflection unit for periodically deflecting the light beam into a scanning plane, a light receiver for generating a reception signal from the light beam reflected or remitted in the monitoring area, an encoder for determining the angular position of the scanning unit as wells as a control and evaluation unit (48a-b) which controls the drive, receives the angle signal of the encoder and is configured for the detection and position determination of the objects based on the reception signal and the angle signal, wherein the deflection unit is tiltable in order to vary the scanning plane, characterized in that the scanning unit comprises a stand-alone tilt unit (30a-b, 32) having a tilt control for tilting the deflection unit in that there is no data connection between tilt control and control and evaluation unit (48a-b) and the tilt control starts its tilt pattern on its own, without control of the control and evaluation unit (48a-b), as soon as the scanning unit starts to move.
A structural member complex having a closed cross-sectional shape formed by bonding both end portions extending in a longitudinal direction in two long structural members, wherein the long structural members are formed to have a U-shaped longitudinal cross-section and are formed such that two corners inside the U-shaped portion are reinforced by fiber reinforcement resin and a cross-section of each of two corners inside the reinforced U-shaped portion is a triangular cross-section characterized by satisfying the following equations: 0.05 ≤ W / W 0 ≤ 0.15 0.15 ≤ H / H 0 ≤ 0.36, wherein W0 indicates an outer face length of a bottom face portion of the U-shaped portion of the longitudinal cross-section, W indicates an inner face length of the bottom face portion of the U-shaped portion of the inner corner of the reinforced U-shaped portion of the longitudinal cross-section, H0 indicates an outer face length of the upright face portion of the U-shaped portion of the longitudinal cross-section, and H indicates an inner face length of the upright face portion of the U-shaped portion of the inner corner of the reinforced U-shaped portion of the longitudinal cross-section. W0 indicates an outer face length of a bottom face portion of the U-shaped portion of the longitudinal cross-section, W indicates an inner face length of the bottom face portion of the U-shaped portion of the inner corner of the reinforced U-shaped portion of the longitudinal cross-section, H0 indicates an outer face length of the upright face portion of the U-shaped portion of the longitudinal cross-section, and H indicates an inner face length of the upright face portion of the U-shaped portion of the inner corner of the reinforced U-shaped portion of the longitudinal cross-section.
A coffee percolator for preparing coffee or coffee-based beverages, comprising at least a hydraulic pump regulating water inflow to the percolator, a hydraulic circuit through which said pump is connected to a delivery assembly provided with a filter unit containing coffee powder; a volumetric meter being arranged between said pump and said delivery assembly, to regulate the water quantity required to obtain a desired beverage amount, a valve for controlling the water flow rate and a boiler to adjust water temperature to a desired value, an outlet valve, and an electronic control unit, characterised in that said valve for controlling the water flow rate is a motor driven proportional valve comprising a linear stepping motor, a sleeve provided with a flange, a stem provided with a shutter and at least one dynamic sealing O-ring, wherein said stepping motor driven control valve controls also the water pressure in the infusion and extraction stages with an open loop by changing the steps of the linear stepping motor..
A method for forming a molded part having quasi-isotropic properties, the method comprising: consolidating a first layer formed from a first composite component material and a second layer formed from a second composite component material to create a quasi-isotropic panel, wherein the first composite component material is different from the second composite component material, and wherein the first composite component material and the second composite component material comprise fibers, wherein the fibers of the first component material are oriented in a first orientation, and wherein the fibers of the second composite component material are oriented in a second orientation; dividing the quasi-isotropic panel into a plurality of quasi-flakes; filling a compression mold with the plurality of quasi-flakes; and applying heat to the compression mold to form the molded part having quasi-isotropic properties. consolidating a first layer formed from a first composite component material and a second layer formed from a second composite component material to create a quasi-isotropic panel, wherein the first composite component material is different from the second composite component material, and wherein the first composite component material and the second composite component material comprise fibers, wherein the fibers of the first component material are oriented in a first orientation, and wherein the fibers of the second composite component material are oriented in a second orientation; dividing the quasi-isotropic panel into a plurality of quasi-flakes; filling a compression mold with the plurality of quasi-flakes; and applying heat to the compression mold to form the molded part having quasi-isotropic properties.
A hydroxyalkyl starch as therapeutically active compound for use in the treatment of a hematological neoplasm wherein said treatment comprises administration of a therapeutically effective amount of said HAS, wherein the hematological neoplasm is selected from the group of leukemia and lymphoma, wherein said group does not comprise primary CNS lymphoma.
A photosensitive resin composition for a relief printing original plate containing (i) modified partially-saponified polyvinyl acetate having a functional group introduced into a side chain thereof, (ii) tertiary nitrogen atom-containing polyamide, (iii) a photopolymerizable unsaturated compound and (iv) a photopolymerization initiator, characterized in that the above (ii) tertiary nitrogen atom-containing polyamide contains 20 to 50% by mol of a structural unit obtained from cyclohexane-dicarboxylic acid and 50 to 95% by mol of an alicyclic structural unit in total, in relation to a total of an amount of an aminocarboxylic acid unit (including a case wherein lactam is a raw material), an amount of a dicarboxylic acid unit and an amount of a diamine unit in the polyamide molecule.
A dental object for attachment to a tooth or teeth in an intraoral space, comprising: - an adhesive region comprising a gutta-percha material for attaching the dental object to the tooth, wherein the dental object comprises sensor technology, an electronic component, a battery, a housing and/or a retaining plate. - an adhesive region comprising a gutta-percha material for attaching the dental object to the tooth,
An agricultural harvester, comprising: a chassis; an axle assembly carrying the chassis; a plurality of hub assemblies (76, 78) including a first hub assembly and a second hub assembly, the hub assemblies each being coupled to an opposite corresponding end of the axle assembly; and a plurality of ground engaging devices each being coupled to a corresponding one of the hub assemblies (76, 78), the ground engaging devices supporting the axle assembly and the chassis; wherein the axle assembly comprises: an extendable/retractable axle for altering a distance between the ground engaging devices that are coupled to the hub assemblies (76, 78); and a connecting rod extending/retracting from a central portion of the axle assembly, the connecting rod being also coupled to a portion of the first hub assembly; a plurality of actuators configured to coordinate the extension/retraction of the extendable/retractable axle and the connecting rod; and characterised in that the connecting rod is generally vertically displaced from the extendable/retractable axle. a chassis; an axle assembly carrying the chassis; a plurality of hub assemblies (76, 78) including a first hub assembly and a second hub assembly, the hub assemblies each being coupled to an opposite corresponding end of the axle assembly; and a plurality of ground engaging devices each being coupled to a corresponding one of the hub assemblies (76, 78), the ground engaging devices supporting the axle assembly and the chassis; wherein the axle assembly comprises: an extendable/retractable axle for altering a distance between the ground engaging devices that are coupled to the hub assemblies (76, 78); and a connecting rod extending/retracting from a central portion of the axle assembly, the connecting rod being also coupled to a portion of the first hub assembly; a plurality of actuators configured to coordinate the extension/retraction of the extendable/retractable axle and the connecting rod; and characterised in that the connecting rod is generally vertically displaced from the extendable/retractable axle. an extendable/retractable axle for altering a distance between the ground engaging devices that are coupled to the hub assemblies (76, 78); and a connecting rod extending/retracting from a central portion of the axle assembly, the connecting rod being also coupled to a portion of the first hub assembly; a plurality of actuators configured to coordinate the extension/retraction of the extendable/retractable axle and the connecting rod; and characterised in that the connecting rod is generally vertically displaced from the extendable/retractable axle.