mhurhangee/ep-ind-claims huggingface dataset:
Connection system comprising at least one multiple-part vehicle axle (3a; 3b) and at least one connecting bridge device (1a; 1b) so as to attach a multi-point control arm (2a; 2b) to the multiple-part vehicle axle (3a; 3b), wherein the connecting bridge device (1a; 1b) comprises at least one main body (4a; 4b) for receiving and dissipating forces and/or momentums transmitted between the vehicle axle (3a; 3b) and the multi-point control arm (2a; 2b); at least one axle fastening unit (5a; 5b, 6a; 6b) for fastening the main body (4a; 4b) to the vehicle axle (3a; 3b); and at least one control arm coupling unit (8a; 8b, 9a), which is intersected by a plane of main extent (7a; 7b) of the main body (4a; 4b), for coupling the main body (4a; 4b) to the multi-point control arm (2a; 2b), characterized in that the vehicle axle (3a, 3b) has two attachment units (20a, 21a; 20b, 21b), which are disposed separately from a central part (19a; 19b) of the vehicle axle (3a; 3b), for fastening the connecting bridge device (1a; 1b), wherein the central part (19a; 19b) at least partially forms a drive housing for receiving a drive unit (22a; 22b), wherein in each case one attachment unit (20a, 21a; 20b, 21b) is disposed in each case on one axle sub-body (24a, 25a, 24b, 25b) which is configured separately from the central part (19a; 19b). at least one main body (4a; 4b) for receiving and dissipating forces and/or momentums transmitted between the vehicle axle (3a; 3b) and the multi-point control arm (2a; 2b); at least one axle fastening unit (5a; 5b, 6a; 6b) for fastening the main body (4a; 4b) to the vehicle axle (3a; 3b); and at least one control arm coupling unit (8a; 8b, 9a), which is intersected by a plane of main extent (7a; 7b) of the main body (4a; 4b), for coupling the main body (4a; 4b) to the multi-point control arm (2a; 2b), characterized in that the vehicle axle (3a, 3b) has two attachment units (20a, 21a; 20b, 21b), which are disposed separately from a central part (19a; 19b) of the vehicle axle (3a; 3b), for fastening the connecting bridge device (1a; 1b), wherein the central part (19a; 19b) at least partially forms a drive housing for receiving a drive unit (22a; 22b), wherein in each case one attachment unit (20a, 21a; 20b, 21b) is disposed in each case on one axle sub-body (24a, 25a, 24b, 25b) which is configured separately from the central part (19a; 19b).
A reader, comprising: an aiming unit (1,8), a distance sensor (1,7), an antenna unit and a processor, wherein the aiming unit (1,8) is configured to aim at a target electronic tag, the distance sensor (1,7) is configured to measure a distance d between the target electronic tag and the reader, and the antenna unit is configured to receive a radio frequency signal transmitted by the target electronic tag, when the antenna unit only receives a radio frequency signal transmitted by one electronic tag, the reader reads the electronic tag; characterized in that when the antenna unit receives radio frequency signals transmitted by a plurality of electronic tags, the processor filters out the target electronic tag among the plurality of electronic tags according to a matching degree between the distance d measured by the distance sensor (1,7) and phase values of the radio frequency signals received by the antenna unit. an aiming unit (1,8), a distance sensor (1,7), an antenna unit and a processor, wherein the aiming unit (1,8) is configured to aim at a target electronic tag, the distance sensor (1,7) is configured to measure a distance d between the target electronic tag and the reader, and the antenna unit is configured to receive a radio frequency signal transmitted by the target electronic tag, when the antenna unit only receives a radio frequency signal transmitted by one electronic tag, the reader reads the electronic tag; characterized in that when the antenna unit receives radio frequency signals transmitted by a plurality of electronic tags, the processor filters out the target electronic tag among the plurality of electronic tags according to a matching degree between the distance d measured by the distance sensor (1,7) and phase values of the radio frequency signals received by the antenna unit.
An in vitro method for determining the structural conformation of a chromosome in a cell, comprising hybridizing a plurality of target sequences of RNA in the cell with members of at least one set of fluorescently labeled oligonucleotide probes, wherein the plurality of targeted sequences of RNA are transcribed from portions of at least one chromosome, and wherein the pattern of fluorescently labeled probes hybridized to the target sequences of RNA is indicative of the structural conformation of the chromosome; wherein the targeted RNA is mRNA; and wherein the targeted mRNA sequence is at least a portion of an intron of the mRNA sequence.
Installation for practising aquatic activities, comprising: - a basin having a floor, - a flow path comprising an inclined plane arranged upstream of a deflector device, wherein the flow path extends between an end portion being arranged upstream and an end portion being arranged downstream, where it ends in the basin, - water supply means (12, 13, 14) of the flow path in its upstream arranged end portion, wherein - the flow path comprises the deflector device at its downstream arranged end portion, wherein the deflector device has a straight-line profile in its cross-section and an outflow edge extending into the basin at a distance from the floor of the basin, wherein the deflector device is inclined towards the top in direction of its outflow edge, - the water supply means (12, 13, 14) feed the flow path constantly, in order to generate a standing wave in the basin, - the basin is confined by a side wall, which substantially extends below the deflector device, - the installation operates with a closed water circuit, and - under the basin, the water necessary for the proper functioning of the closed circuit installation is stored. - a basin having a floor, - a flow path comprising an inclined plane arranged upstream of a deflector device, wherein the flow path extends between an end portion being arranged upstream and an end portion being arranged downstream, where it ends in the basin, - water supply means (12, 13, 14) of the flow path in its upstream arranged end portion, - the flow path comprises the deflector device at its downstream arranged end portion, wherein the deflector device has a straight-line profile in its cross-section and an outflow edge extending into the basin at a distance from the floor of the basin, wherein the deflector device is inclined towards the top in direction of its outflow edge, - the water supply means (12, 13, 14) feed the flow path constantly, in order to generate a standing wave in the basin, - the basin is confined by a side wall, which substantially extends below the deflector device, - the installation operates with a closed water circuit, and - under the basin, the water necessary for the proper functioning of the closed circuit installation is stored.
A color measurement apparatus for measuring a color on a printed item, comprising: - a first body; - a second body including a sensor for measuring color data of a printed item, the second body being movable relative to the first body along a measurement direction; - a guiding rail for guiding the movement of the second body relative to the first body, the guiding rail being positioned between the first body and the second body, wherein the second body is slidingly mounted on the guiding rail and can slide along the guiding rail in a first sliding direction, and wherein the guiding rail is slidingly mounted on the first body and can slide along the first body in a second sliding direction parallel to the first sliding direction, whereby the movement of the second body relative to the first body is a combined movement including a sliding movement of the second body relative to the guiding rail and a sliding movement of the guiding rail relative to the first body; and wherein the color measurement apparatus comprises directing means (51, 51a, 51b) for directing a translational movement of the color measurement apparatus along a translation direction which is perpendicular to the measurement direction; and wherein the first body includes a first casing having a bottom face, the directing means comprising at least one wheel or roller (51, 51a, 51b), said wheel or roller (51, 51a, 51b) protruding from the bottom face and having a pivot perpendicular to the translation direction. - a first body; - a second body including a sensor for measuring color data of a printed item, the second body being movable relative to the first body along a measurement direction; - a guiding rail for guiding the movement of the second body relative to the first body, the guiding rail being positioned between the first body and the second body,
Battery case for accommodating at least one battery module in a vehicle, the battery case being formed from a double-walled, vacuum-tight casing structure which is filled with a microporous or nanoporous filling material and at least largely evacuated or able to be evacuated of gases and which includes an interior for accommodating the at least one battery module, characterized in that the battery case is designed in multiple parts and is multifunctional, by the casing structure comprising a trough-shaped bottom element having a peripheral side wall which projects above a bottom surface, a peripheral edge element which rests on the peripheral side wall, and a cover element which rests on the peripheral edge element, the bottom element being associated, on its side facing the interior, with at least one first cooling surface which is integrated into the casing structure in a vacuum-tight manner and being associated, on the side facing away from the interior, with a reinforcement fabric which is covered by an impact-resistant fiber mat.
A method of additive deposition, comprising: generating an aerosol of additive material by an aerosol generation apparatus; selectively altering an electrostatic charge of a substrate layer surface by a selective charging apparatus; electrostatically charging the generated aerosol of additive material to a first polarity by an aerosol charging apparatus; and selectively depositing the electrostatically charged generated aerosol of additive material onto the substrate layer surface due to an electrostatic force caused by an electrostatic potential between the electrostatically charged aerosol of additive material and the selectively electrostatically charge altered substrate surface layer, characterized in that the aerosol generation apparatus is a filament extension atomizer, stretching fluid filaments of additive materials between diverging surfaces of the filament extension atomizer. generating an aerosol of additive material by an aerosol generation apparatus; selectively altering an electrostatic charge of a substrate layer surface by a selective charging apparatus; electrostatically charging the generated aerosol of additive material to a first polarity by an aerosol charging apparatus; and selectively depositing the electrostatically charged generated aerosol of additive material onto the substrate layer surface due to an electrostatic force caused by an electrostatic potential between the electrostatically charged aerosol of additive material and the selectively electrostatically charge altered substrate surface layer, characterized in that the aerosol generation apparatus is a filament extension atomizer, stretching fluid filaments of additive materials between diverging surfaces of the filament extension atomizer.
Device for display of the standard time as well as of the time of sunrise and/or of the time of sunset, comprising a first standard time index arranged to indicate the standard time, a member for displaying the time of sunrise and/or sunset, a second index arranged to indicate the time of sunrise and/or a third index arranged to indicate the time of sunset on said member for displaying the time of sunrise and/or sunset, said display device comprising a mechanism for managing the standard time as well as the time of sunrise and/or the time of sunset upon the change of time for summer/winter comprising a summer/winter selector arranged to move between two positions, a summer time position when the summer time is to be displayed and a winter time position when the winter time is to be displayed, and to enable display - simultaneously with the summer time and the winter time respectively - of the standard time by means of the first standard time index as well as of the sunrise time by means of the second index and/or of the sunset time by means of the third index upon passage thereof to its summer time position and to its winter time position respectively, in which display device the member for displaying the time of sunrise and/or sunset is arranged to move in rotation with respect to the second index and/or to the third index in the clockwise direction and in the anticlockwise direction, characterised in that the summer/winter selector comprises a lever mounted to pivot and for conjoint rotation with the member for displaying the time of sunrise and/or sunset so as to rotationally drive said member for displaying the time of sunrise and/or sunset by an angle corresponding to displaying, by means of the second index and/or of the third index, one hour more upon passage of the summer/winter selector to the summer time position and by an angle corresponding to displaying one hour less upon passage of the summer/winter selector to the winter time position.
Drive device, comprising an internal rotor motor and a gear transmission, a motor housing, a stator with winding and a rotor with at least one permanent magnet, wherein the motor housing has a housing part (1b, 41) extending essentially radially on one side of the stator, characterised in that the gear transmission is a ball-screw transmission, having a nut (18, 48, 118a) connected to the rotor, and in that the one or all bearing(s) (6, 9, 17, 50, 50a, 51, 55, 55a, 59, 106, 106a) for the rotor and the nut (18, 48, 118a) is/are arranged on the housing part (1b, 41) and/or on a component (5, 46) firmly connected to the housing part (1b, 41).
A micro cooling element with a mounting surface for a component to be cooled, in particular a semiconductor component, which has within it a micro cooling structure which is connected by connection channels to at least one inflow opening and at least one outflow opening by means of which a cooling medium can be supplied to the micro cooling structure or be discharged from the latter, characterised in that it is formed from at least two different powdery and/or liquid, in particular metallic and/or ceramic materials or material mixtures while maintaining a monolithic structure, wherein a first material or a first material mixture is a thermally leading powdery or liquid material or material mixture and is provided in a first predominant thermally stressed region of the micro cooling element, and a second powdery or liquid material or material mixture, which is different from the first material or material mixture has a high mechanical strength and it provided in a mechanically stressed region of the micro cooling element.
Device for, preferably automatically, stapling printed products, having a stapling head for driving a staple through a printed product rear and having a bender for bending over the open ends of the staple, wherein the stapling head is constructed in a modular manner, wherein the stapling head comprises a driver tool (1, 8, 14) and a driver tool holder for providing with the driver tool (1, 8, 14), wherein the driver tool (1, 8, 14) can be fixed to the driver tool holder so as to be able to be replaced, characterised in that the device comprises a plurality of different driver modules, in that the driver tool holder can be provided with each of the different driver modules as a driver tool (1, 8, 14), and in that the different driver modules are each provided to act on or drive differently constructed staples.
An implantable medical device, comprising: a pair of electrodes (14, 16); a biopotential sensing module coupled to the pair of electrodes and configured to acquire a biopotential signal present at the pair of electrodes at a first sampling rate; an impedance monitoring module coupled to the pair of electrodes and configured to acquire a bioimpedance signal across the pair of electrodes at a second sampling rate; a control module configured to control the impedance monitoring module to deliver a drive signal that is synchronized to the first sampling rate to the pair of electrodes for acquiring the bioimpedance signal; characterized in that the control module is further configured to control the impedance monitoring module to start the drive signal shifted in phase from a phase origin of a drive signal clock period. a pair of electrodes (14, 16); a biopotential sensing module coupled to the pair of electrodes and configured to acquire a biopotential signal present at the pair of electrodes at a first sampling rate; an impedance monitoring module coupled to the pair of electrodes and configured to acquire a bioimpedance signal across the pair of electrodes at a second sampling rate; a control module configured to control the impedance monitoring module to deliver a drive signal that is synchronized to the first sampling rate to the pair of electrodes for acquiring the bioimpedance signal; characterized in that the control module is further configured to control the impedance monitoring module to start the drive signal shifted in phase from a phase origin of a drive signal clock period. an impedance monitoring module coupled to the pair of electrodes and configured to acquire a bioimpedance signal across the pair of electrodes at a second sampling rate; a control module configured to control the impedance monitoring module to deliver a drive signal that is synchronized to the first sampling rate to the pair of electrodes for acquiring the bioimpedance signal; characterized in that the control module is further configured to control the impedance monitoring module to start the drive signal shifted in phase from a phase origin of a drive signal clock period.
A piston and cylinder type damper with a cylinder (12, 112, 512) containing damping fluid having a longitudinal axis and a piston assembly (10, 110, 310, 410, 510) mounted therein for reciprocal movement along said axis, with the piston assembly dividing the cylinder into two chambers and providing a passageway for flow of damping fluid therebetween, the passageway including a control passage for restricting flow of damping fluid, and a sealing element (21, 121, 321, 421, 521a, 521b) for selectively sealing the piston assembly against the cylinder, with the control passage and the sealing element being positioned at axially spaced apart locations, wherein the sealing element comprises an O-ring (21, 121, 321, 421, 521a, 521b), wherein the piston assembly comprises a radially extending first flange (19, 119, 319, 519a, 519b) for selectively sealing against the O-ring and a radially extending second flange (20, 120, 320, 520a, 520b) spaced axially from the first flange, wherein the two flanges act as limit stops for the axial movement of the O-ring, and characterised in that the two flanges are connected by a spigot (18, 118, 418, 518a, 518b), wherein the spigot extends through the internal bore of the O-ring and occupies a proportion of the cross-sectional area of the O-ring bore of less than half. wherein the sealing element comprises an O-ring (21, 121, 321, 421, 521a, 521b), wherein the piston assembly comprises a radially extending first flange (19, 119, 319, 519a, 519b) for selectively sealing against the O-ring and a radially extending second flange (20, 120, 320, 520a, 520b) spaced axially from the first flange, wherein the two flanges act as limit stops for the axial movement of the O-ring, and characterised in that the two flanges are connected by a spigot (18, 118, 418, 518a, 518b), wherein the spigot extends through the internal bore of the O-ring and occupies a proportion of the cross-sectional area of the O-ring bore of less than half.
Method for measuring and representing, in real time, the level of local irradiation doses in at least two dimensions, comprising: • a step of positioning N probes S i, which are sensitive to irradiating radiation, each corresponding to a local zone Zi according to a known topology, • a step of acquiring, by each of said probes, the level of irradiation Isi i detected and periodically recording the numerical values ISi(t) • a step of converting said numerical values ISi(t) into values DSi(t)corresponding to the radiation dose applied to each of the zones Z associated with a probe S i, as a function of a calibration table, said method further comprising, during the measurement sequence, steps of calculating the spatial interpolation of at least one estimated irradiation level value IS iv (t)of at least one virtual zone Z iv not associated with a probe, said method being characterized in that said probe (11 to 14) consists of at least one organic or inorganic scintillating optical fiber which is sensitive to radiation and connected at one of its ends to one end of a non-scintillating optical fiber made of plastic or silica by a connecting sleeve. • a step of positioning N probes S i, which are sensitive to irradiating radiation, each corresponding to a local zone Zi according to a known topology, • a step of acquiring, by each of said probes, the level of irradiation Isi i detected and periodically recording the numerical values ISi(t) • a step of converting said numerical values ISi(t) into values DSi(t)corresponding to the radiation dose applied to each of the zones Z associated with a probe S i, as a function of a calibration table, said method further comprising, during the measurement sequence, steps of calculating the spatial interpolation of at least one estimated irradiation level value IS iv (t)of at least one virtual zone Z iv not associated with a probe, said method being characterized in that said probe (11 to 14) consists of at least one organic or inorganic scintillating optical fiber which is sensitive to radiation and connected at one of its ends to one end of a non-scintillating optical fiber made of plastic or silica by a connecting sleeve.