mhurhangee/ep-ind-claims huggingface dataset:
Method for validating calibration data of at least one sensor unit (26, 27) of a vehicle, while the vehicle is positioned inside or on a predefined vehicle servicing device in a predefined relative servicing position with regard to a functional apparatus of the vehicle servicing device, wherein the functional apparatus is a car washing apparatus for washing the vehicle or a lifting platform for lifting the vehicle or a multiplex garage for stacking the vehicle above or below another vehicle or an inductive recharging station for recharging an electrical energy storage of the vehicle and wherein the functional apparatus performs a predefined service to the vehicle, and wherein in the vehicle servicing device at least one marker element (31, 32) is provided, wherein the at least one marker element (31, 32) is arranged in a predefined relative position with regard to the predefined relative servicing position and wherein the at least one marker element (31, 32) is designed to be detectable by the at least one sensor unit (26, 27), wherein the at least one sensor unit (26, 27) is an optical and/or electromagnetic and/or ultrasonic sensor unit, and before and/or while and/or after the functional apparatus performs its service and while the vehicle is in the predefined relative servicing position at least one control unit of the vehicle operates the at least one sensor unit (26, 27) and thereby detects the at least one marker element (31, 32) and determines position data describing a relative position of the at least one marker element (31, 32) with regard to the vehicle and determines a difference between the position data and predefined reference position data that indicate the true relative position of the at least one marker element (31, 32) with regard to the servicing position and, if the difference is larger than a predefined threshold value, generates a calibration signal. in the vehicle servicing device at least one marker element (31, 32) is provided, wherein the at least one marker element (31, 32) is arranged in a predefined relative position with regard to the predefined relative servicing position and wherein the at least one marker element (31, 32) is designed to be detectable by the at least one sensor unit (26, 27), wherein the at least one sensor unit (26, 27) is an optical and/or electromagnetic and/or ultrasonic sensor unit, and before and/or while and/or after the functional apparatus performs its service and while the vehicle is in the predefined relative servicing position at least one control unit of the vehicle operates the at least one sensor unit (26, 27) and thereby detects the at least one marker element (31, 32) and determines position data describing a relative position of the at least one marker element (31, 32) with regard to the vehicle and determines a difference between the position data and predefined reference position data that indicate the true relative position of the at least one marker element (31, 32) with regard to the servicing position and, if the difference is larger than a predefined threshold value, generates a calibration signal.
A metamaterial comprising an array of unit cells each formed by at least one conductive track, wherein the at least one conductive track of at least one of the unit cells is configured as an asymmetrical split-ring resonator which does not have a mirror symmetry plane perpendicular to a plane of the conductive track, wherein the at least one unit cell comprises first and second L-shaped conductive members disposed back-to-back in a plane with a gap between the members, and connected together by a perimetral conductive track that runs from an arm of the first L-shaped conductive member to an arm of the second L-shaped conductive member so as substantially to surround both L-shaped conductive members in the plane, and wherein the first and second L-shaped conductive members in at least one of the unit cells are differently sized and/or shaped to each other.
An apparatus for roasting partially pre-roasted coffee beans comprising: - a vessel to contain coffee beans, - an electrical heater to heat coffee beans contained in the vessel, - at least one temperature sensor to measure temperature in the vessel, - at least one sensor to measure the concentration of at least one volatile organic component in the smoke produced in the vessel, - a control system operable to control the heater, wherein the control system is configured to: - apply a roasting recipe dedicated to the roasting of partially pre-roasted beans comprising at least a temperature versus time profile, - measure the concentration of at least one volatile organic component in the smoke produced in the vessel during the time the roasting recipe is applied, - detect an increase of the measured concentration in function of time, characterised in that the control system is further configured to: - stop heating if no increase of the measured concentration happens after a set reference time t 1. - a vessel to contain coffee beans, - an electrical heater to heat coffee beans contained in the vessel, - at least one temperature sensor to measure temperature in the vessel, - at least one sensor to measure the concentration of at least one volatile organic component in the smoke produced in the vessel, - a control system operable to control the heater, wherein the control system is configured to: - apply a roasting recipe dedicated to the roasting of partially pre-roasted beans comprising at least a temperature versus time profile, - measure the concentration of at least one volatile organic component in the smoke produced in the vessel during the time the roasting recipe is applied, - detect an increase of the measured concentration in function of time, - apply a roasting recipe dedicated to the roasting of partially pre-roasted beans comprising at least a temperature versus time profile, - measure the concentration of at least one volatile organic component in the smoke produced in the vessel during the time the roasting recipe is applied, - detect an increase of the measured concentration in function of time, characterised in that the control system is further configured to: - stop heating if no increase of the measured concentration happens after a set reference time t 1. - stop heating if no increase of the measured concentration happens after a set reference time t 1.
A hinge (10, 110) for rotatably coupling an appliance door with an appliance body, comprising: an input arm (20,120) affixable with the body; a housing (18, 118) affixable within the door and coupled with the input arm (20,120) so as to be rotatable through a range of motion between a first position and a second position; a spring (24, 124) operably engaged between the housing (18,118) and the input arm (20,120) to apply a balancing torque to the housing (18,118) relative to the input arm (20,120); characterized in that the hinge (10,110) further comprises: a first magnet (26, 126) fixed relative to the housing (18, 118); and a second magnet (28, 128) movably received within the housing (18,118) and operatively coupled with the input arm (20, 120) so as to be positioned adjacent the first magnet (26, 126) when the housing (18, 118) is in the first position and moved away from the first magnet (26,126) by rotation of the housing (18,118) with respect to the input arm (20,120) from the first position toward the second position; wherein a mutual attraction between the first and second magnets (26,126,28,128) applies a closing torque to the housing (18,118) relative to the input arm (20,120) when the housing is within about 25 degrees from the first position. an input arm (20,120) affixable with the body; a housing (18, 118) affixable within the door and coupled with the input arm (20,120) so as to be rotatable through a range of motion between a first position and a second position; a spring (24, 124) operably engaged between the housing (18,118) and the input arm (20,120) to apply a balancing torque to the housing (18,118) relative to the input arm (20,120); characterized in that the hinge (10,110) further comprises: a first magnet (26, 126) fixed relative to the housing (18, 118); and a second magnet (28, 128) movably received within the housing (18,118) and operatively coupled with the input arm (20, 120) so as to be positioned adjacent the first magnet (26, 126) when the housing (18, 118) is in the first position and moved away from the first magnet (26,126) by rotation of the housing (18,118) with respect to the input arm (20,120) from the first position toward the second position; a first magnet (26, 126) fixed relative to the housing (18, 118); and a second magnet (28, 128) movably received within the housing (18,118) and operatively coupled with the input arm (20, 120) so as to be positioned adjacent the first magnet (26, 126) when the housing (18, 118) is in the first position and moved away from the first magnet (26,126) by rotation of the housing (18,118) with respect to the input arm (20,120) from the first position toward the second position; wherein a mutual attraction between the first and second magnets (26,126,28,128) applies a closing torque to the housing (18,118) relative to the input arm (20,120) when the housing is within about 25 degrees from the first position.
Motor vehicle door latch with a locking mechanism fundamentally comprising a catch and a pawl, furthermore with an operating lever mechanism (2a, 2b) working on the pawl, and with a child safety device with a child latch lever acted on by a spring, wherein the child latch lever and the spring are formed as a structural unit (4, 5), wherein the child latch lever is equipped with a guide groove to engage a pin, which is limited in its lengthwise extension on the one hand by a radial internal stop wall in relation to a rotational axis of the child latch lever and, on the other hand a radial external spring wall limited as a spring.
A spindle drive assembly for opening and/or closing a vehicle flap, comprising a spindle drive assembly housing which extends along a spindle drive axis and comprises, between its axial ends (14a, 14b), a stop section acting axially on both sides, wherein a motor gear unit is arranged on a first axial side of the stop section and a spindle unit is arranged on a second axial side of the stop section opposite the first axial side, wherein the motor gear unit is placed against the first axial side of the stop section and the spindle unit is placed against the second axial side of the stop section, wherein the spindle drive assembly housing is tubular with a substantially circular cross-section, wherein that part of the spindle drive assembly housing in which the motor gear unit and the spindle unit are seated is manufactured in one piece, wherein the spindle drive assembly housing comprises a housing cap, which closes the spindle drive assembly housing on the motor gear input side, wherein the motor gear unit includes a spindle drive motor, which is coupled to a gearing via a motor shaft, characterized in that the housing cap is laser welded inside the spindle drive assembly housing, wherein the spindle drive motor and the motor gear unit are supported in the spindle drive assembly housing so as to be rotationally fixed with respect to the spindle drive axis by means of an interlocking fit, wherein the spindle drive motor is supported at the housing cap so as to be rotationally fixed by means of an interlocking fit. wherein a motor gear unit is arranged on a first axial side of the stop section and a spindle unit is arranged on a second axial side of the stop section opposite the first axial side, wherein the motor gear unit is placed against the first axial side of the stop section and the spindle unit is placed against the second axial side of the stop section, wherein the spindle drive assembly housing is tubular with a substantially circular cross-section, wherein that part of the spindle drive assembly housing in which the motor gear unit and the spindle unit are seated is manufactured in one piece, wherein the spindle drive assembly housing comprises a housing cap, which closes the spindle drive assembly housing on the motor gear input side, wherein the motor gear unit includes a spindle drive motor, which is coupled to a gearing via a motor shaft, characterized in that the housing cap is laser welded inside the spindle drive assembly housing, wherein the spindle drive motor and the motor gear unit are supported in the spindle drive assembly housing so as to be rotationally fixed with respect to the spindle drive axis by means of an interlocking fit, wherein the spindle drive motor is supported at the housing cap so as to be rotationally fixed by means of an interlocking fit.
Method for examining a sample in a scanning microscope or a confocal scanning microscope, wherein the sample is impinged on by illumination light and detection light emanating from the sample is directed to a detector, and wherein the illumination light is directed through an acousto-optical component, which can intermittently interrupt the impingement of illumination light on the sample, wherein the sample is illuminated with a first illumination light beam having a first linear polarization direction, and with a second illumination light beam, the linear polarization direction of which is continuously switched over between the first linear polarization direction and a second linear polarization direction, which is different from the first linear polarization direction, by means of a switchover device, wherein the illumination light of the first linear polarization direction passes along a first light path and the illumination light of the second linear polarization direction passes along a second light path, and wherein the acousto-optical component combines the first light path and the second light path so that the illumination light of the first linear polarization direction collinearly combined with the illumination light of the second linear polarization direction passes onto a common illumination beam path for illuminating the sample, characterized in that firstly a primary illumination light beam is generated, which includes the first illumination light beam and/or the second illumination light beam in collinearly combined fashion, in that then the primary illumination light beam is spatially split in a manner dependent on the linear polarization, in particular by a polarization beam splitter, and the portions having different linear polarizations are directed separately from one another onto the first and second light paths, and in that the acousto-optical component is embodied as an AOTF (acousto-optical tunable filter), and three different electrical RF frequencies are applied thereto and three mechanical waves that differ with regard to their frequency are generated, namely a first, a second and a third mechanical wave, which propagate simultaneously through the crystal of the AOTF, wherein the frequency of the first mechanical wave is chosen such that the first illumination light beam is diffracted at the latter and is thereby directed onto the illumination beam path for illuminating the sample, the frequency of the second mechanical wave is chosen such that the second illumination light beam is diffracted at the latter and is thereby directed onto the illumination beam path for illuminating the sample if said beam has the first linear polarization direction, and wherein the frequency of the third mechanical wave is chosen such that the second illumination light beam is diffracted at the latter and is thereby directed onto the illumination beam path for illuminating the sample if said beam has the second linear polarization direction.
A method for purifying P 1,P 4 -di(uridine 5'-)tetraphosphate by removing iron ions from an aqueous solution or hydrophilic solvent solution containing P 1,P 4 -di(uridine 5'-)tetraphosphate and iron ions, comprising a step of purification using a chelating resin packed column, and a step of adjusting the pH of the solution after said purification step using the chelating resin packed column to 5.5 or less, and then crystallizing P 1,P 4 -di(uridine 5'-)tetraphosphate, or a step of treating the solution after said purification step using the chelating resin packed column with zinc chloride-activated activated carbon. a step of purification using a chelating resin packed column, and a step of adjusting the pH of the solution after said purification step using the chelating resin packed column to 5.5 or less, and then crystallizing P 1,P 4 -di(uridine 5'-)tetraphosphate, or a step of treating the solution after said purification step using the chelating resin packed column with zinc chloride-activated activated carbon.
An N-benzylaniline derivative having the structure of general formula, wherein, R 1 is hydroxyl, C 1 -C 6 alkoxy or -OCOR 11; R 2, R 3, R 5, R 6, R 9 or R 10 is each independently hydrogen, halogen or trifluoromethyl; R 4 is halogen or trifluoromethyl; R 7 or R 8 is each independently -COR 12, hydroxyl, C 1 -C 6 alkoxy, -OCH 2 COR 12, -OCOR 11 or -OCH 2 COB; X is hydrogen or C 1 -C 6 alkyl; Y is hydrogen, C 1 -C 6 alkyl, -CH 2 COR 13 or -COR 13; R 11 is C 1 -C 6 alkyl or B; R 12 is C 1 -C 6 alkyl, hydroxyl, C 1 -C 6 alkoxy or B; R 13 is C 1 -C 6 alkyl, C 1 -C 6 alkoxy or B; B is wherein at least one of R 7, R 8 and Y contains B group, or a pharmaceutically acceptable salt thereof. R 1 is hydroxyl, C 1 -C 6 alkoxy or -OCOR 11; R 2, R 3, R 5, R 6, R 9 or R 10 is each independently hydrogen, halogen or trifluoromethyl; R 4 is halogen or trifluoromethyl; R 7 or R 8 is each independently -COR 12, hydroxyl, C 1 -C 6 alkoxy, -OCH 2 COR 12, -OCOR 11 or -OCH 2 COB; X is hydrogen or C 1 -C 6 alkyl; Y is hydrogen, C 1 -C 6 alkyl, -CH 2 COR 13 or -COR 13; R 11 is C 1 -C 6 alkyl or B; R 12 is C 1 -C 6 alkyl, hydroxyl, C 1 -C 6 alkoxy or B; R 13 is C 1 -C 6 alkyl, C 1 -C 6 alkoxy or B; B is wherein at least one of R 7, R 8 and Y contains B group, or a pharmaceutically acceptable salt thereof.
A permanent magnet module for a rotor, configured to be mounted to a rim of the rotor and comprising a metallic main body (100; 400), a first permanent magnet component (101; 401), a first non-magnetic component (102; 402), and a cover; wherein the metallic main body (100; 400) forms a first partial pole piece (105; 404) at a first lateral side of the permanent magnet module, forms a second partial pole piece at a second lateral side opposite to the first lateral side of the permanent magnet module and forms a trench-shaped or channel-shaped first receptacle between the first (105; 404) and second partial pole pieces, the first receptacle having a substantially U-shaped cross-section including a bottom and two side walls; wherein the first permanent magnet component (101; 401) is arranged within the first receptacle of the metallic main body (100; 400) and is magnetized in such a way that, in use, the first permanent magnet component (101; 401) has a radial magnetization direction (115; 424) with respect to an axis of rotation of the rotor; wherein the first non-magnetic component (102; 402) is arranged in a direction substantially tangential to the rotor rim between the first partial pole piece (105; 404) and the first permanent magnet component (101; 401); wherein the cover is made of non-magnetic material and is fixed to upper portions of the side walls of the first receptacle to close off a top side of the first receptacle, thereby defining a top side of the permanent magnet module fixing the first permanent magnet component within the first receptacle. the metallic main body (100; 400) forms a first partial pole piece (105; 404) at a first lateral side of the permanent magnet module, forms a second partial pole piece at a second lateral side opposite to the first lateral side of the permanent magnet module and forms a trench-shaped or channel-shaped first receptacle between the first (105; 404) and second partial pole pieces, the first receptacle having a substantially U-shaped cross-section including a bottom and two side walls; wherein the first permanent magnet component (101; 401) is arranged within the first receptacle of the metallic main body (100; 400) and is magnetized in such a way that, in use, the first permanent magnet component (101; 401) has a radial magnetization direction (115; 424) with respect to an axis of rotation of the rotor; wherein the first non-magnetic component (102; 402) is arranged in a direction substantially tangential to the rotor rim between the first partial pole piece (105; 404) and the first permanent magnet component (101; 401); wherein the cover is made of non-magnetic material and is fixed to upper portions of the side walls of the first receptacle to close off a top side of the first receptacle, thereby defining a top side of the permanent magnet module fixing the first permanent magnet component within the first receptacle.
A plasma illumination device with microwave pumping, comprising a hermetically sealed casing, equipped with a cover with an opening, in which a magnetron and a power source, supplying power to the magnetron, are placed along the axis, a microwave resonator, positioned coaxially with the casing and having light-transmitting side and end walls and a light-reflecting bottom, fitted in the opening in the cover of the casing, and an electrodeless plasma lamp, fitted in the microwave resonator in the antinodal region and rotatable on a support rod, the other end of which is attached to the drive shaft, the axis of the support rod being coaxial with the casing axis, and a coaxial coupling line running parallel to the casing axis, for transmitting microwave power from the magnetron to the microwave resonator, this line having a coupling loop at the end located in the microwave resonator, the illumination device comprising a plurality of heat sinks located on the inner walls of the casing and providing heat transfer from the magnetron, power source and drive, which are located in the casing and generate heat, through the wall of the casing to the external environment, and a light-transmitting hermetically sealed hollow cylinder, fitted coaxially and in a hermetically sealed way on the cover of the casing above the microwave resonator, and designed to protect the microwave resonator from the effects of environmental factors.
A mounting bracket for securing a bezel to a display unit of a display device comprising a bezel, wherein the bezel comprises a first section including a corner, at least one pocket (636, 640) located in said corner, and a second section comprising a boss; the mounting bracket comprising: a corner mounting bracket comprising a bezel attachment portion configured to be affixed to the boss; a display unit attachment portion configured to be affixed to the display unit; at least one tongue configured to extend at least partially into the at least one pocket (636, 640) within the first section of the bezel, and to be affixed to at least one surface of said at least one pocket by an adhesive thereby coupling the bezel to the display unit via the mounting bracket. a corner mounting bracket comprising a bezel attachment portion configured to be affixed to the boss; a display unit attachment portion configured to be affixed to the display unit; at least one tongue configured to extend at least partially into the at least one pocket (636, 640) within the first section of the bezel, and to be affixed to at least one surface of said at least one pocket by an adhesive thereby coupling the bezel to the display unit via the mounting bracket.
A device for steeping barley, comprising a container for barley to be steeped, with a floor in which passageways are provided for passing water between the underside of the floor and the barley to be steeped in the container, characterized in that below the floor a water line system (11, 13, 15) is directly connected to passageways for feeding water and/or gases through these passageways, wherein the device does not have a double floor.