mhurhangee/ep-ind-claims huggingface dataset:
Domestic appliance for the care of laundry items, with a housing and a drum for receiving the laundry items, and a tub which surrounds the drum at least in regions, wherein at least one functional component is connected to the tub so that it is fixed in terms of movement and the domestic appliance has a water filling system and the functional component is a component of the water filling system, characterised in that the tub is fixed to the housing in terms of movement and the functional component, in particular the dispenser tray, is a hydraulic functional component and is embodied in one piece with the tub.
An axial bearing assembly for a turbo-machine for compressing or expanding a fluid, the assembly comprising: - an active axial magnetic bearing including a first rotor armature (120; 220) and a first stator portion including a ferromagnetic core (111; 211), wherein said active axial magnetic bearing is adapted to be controlled by a control circuit receiving information signals outputted by at least one axial detector configured for sensing the axial position of a rotary shaft (103; 203) supported in a contactless manner by active radial magnetic bearings, said first stator portion (111, 112; 211, 212) being located opposite said first rotor armature, said first rotor armature (120; 220) being made of iron or of a material which is adapted to be attracted in a magnetic field, the assembly further comprising: - at least one auxiliary bearing (170; 180, 290), and - a first impeller (102; 202) mountable at a first end of said rotary shaft, and wherein said first rotor armature is constituted by a rear face (121; 221) of said first impeller (102; 202), the bearing assembly being characterized in that said auxiliary bearing (170; 180; 290) is integrated within said ferromagnetic core (111; 211). - an active axial magnetic bearing including a first rotor armature (120; 220) and a first stator portion including a ferromagnetic core (111; 211), wherein said active axial magnetic bearing is adapted to be controlled by a control circuit receiving information signals outputted by at least one axial detector configured for sensing the axial position of a rotary shaft (103; 203) supported in a contactless manner by active radial magnetic bearings, said first stator portion (111, 112; 211, 212) being located opposite said first rotor armature, said first rotor armature (120; 220) being made of iron or of a material which is adapted to be attracted in a magnetic field, - at least one auxiliary bearing (170; 180, 290), and - a first impeller (102; 202) mountable at a first end of said rotary shaft, and wherein said first rotor armature is constituted by a rear face (121; 221) of said first impeller (102; 202), the bearing assembly being characterized in that said auxiliary bearing (170; 180; 290) is integrated within said ferromagnetic core (111; 211).
A method for the inspection of surfaces of an examined object in which the surface is illuminated by means of at least one lighting apparatus and recorded using at least one area image sensor, wherein the recorded images are supplied to an image analysis device which is set up to determine surface anomalies as error areas during detection and also, where necessary, to delineate the error areas in a segmentation in respect of one another or against the image background, to compile error areas which belong together in a region analysis and/or to derive characteristic error features from error areas or error regions during feature extraction, wherein the area image sensor is calibrated three-dimensionally for a selected coordinate system and the examined object with the surface is moved relative to the area image sensor, characterized in that by means of a projection apparatus calibrated three-dimensionally for the selected coordinate system, a pattern is projected onto an area of the surface of the object which is recorded by the area image sensor and, in each case, the position of defined pattern portions of the projected pattern is determined on the surface of the object in the selected coordinate system, wherein the structure of the surface is detected as depth information in a resolution limited by the resolution of the image area sensor and, at the same time, used with the detected colour or intensity information at each image point for the detection and classification of error areas, so that the recording of the projected pattern and the recording of the illuminated surface takes place in the same image of the area image sensor and the projected pattern and the illuminated surface have different brightnesses in the recorded image, wherein the projected pattern and/or the illuminated surface do not lie at the periphery of the contrast that can be recorded in terms of resolution by the area image sensor.
Filling element for filling containers with a liquid charge in the form of a free jet, having at least one liquid channel which is formed in a filling element housing and in which, in the direction of flow of the charge, at least one liquid valve actuated by an actuating mechanism is provided upstream of a dispensing opening, specifically for dispensing the liquid charge in a controlled manner through the at least one dispensing opening into the respective container arranged with a container opening (2.1) at a distance below the dispensing opening, wherein the at least one liquid valve, in the open state, frees a valve gap or opening gap through which the charge can flow, characterized in that the gap width of the opening gap, with the liquid valve fully open, is 13 mm to 16 mm, and in that the actuating mechanism for the at least one liquid valve is designed and/or controlled in such a way that the opening time for fully opening the at least one liquid valve is between 400 ms and 600 ms.
An arrangement of a lighting device and of optical sensors for a motor vehicle, wherein the lighting device has a light module with at least one main light source (3, 4a, 4b, 4c) for generating a primary light distribution, and at least one additional light source (11, 12a, 12b) for illuminating a near field between the primary light distribution and the motor vehicle is located in the light module in a region at a distance of between 0.2 m and 5.0 m from the motor vehicle, wherein the light module with the at least one main light source (3, 4a, 4b, 4c) is embodied for generating high beams, low beams, fog lights, city driving lights, country driving lights, lights for driving on highways, or cornering lights, and the near field illuminated by the additional light source (11, 12a, 12b) is located ahead of the motor vehicle and is detected by the optical sensors.
Sanitary drain fitting with a linear guide having - a fixed guide element, - - which has a first defined guide surface, and - a movable guide element - - which has a second guide surface which is larger than the guide surface of the fixed guide element, wherein the guide elements (1, 2) are made of plastic, characterized in that the guide surface of the movable guide element has interruptions at regular intervals in the direction of movement of the linear guide, in such a way that the contact surface and thus the surface of contacting material areas of the guide elements (1, 2) is smaller than the guide surface of the fixed guide element. - a fixed guide element, - - which has a first defined guide surface, and - a movable guide element - - which has a second guide surface which is larger than the guide surface of the fixed guide element,
A display apparatus comprising: a power supply; a connection interface; and a processor; characterized in that the processor is configured to: identify whether a device connected to the connection interface comprises a speaker or a wireless power transmitter, based on the device being identified as comprising the speaker, provide power supplied from the power supply and a sound signal to the speaker, and based on the device being identified as comprising the wireless power transmitter, provide power supplied from the power supply to the wireless power transmitter. a power supply; a connection interface; and a processor; characterized in that the processor is configured to: identify whether a device connected to the connection interface comprises a speaker or a wireless power transmitter, based on the device being identified as comprising the speaker, provide power supplied from the power supply and a sound signal to the speaker, and based on the device being identified as comprising the wireless power transmitter, provide power supplied from the power supply to the wireless power transmitter. identify whether a device connected to the connection interface comprises a speaker or a wireless power transmitter, based on the device being identified as comprising the speaker, provide power supplied from the power supply and a sound signal to the speaker, and based on the device being identified as comprising the wireless power transmitter, provide power supplied from the power supply to the wireless power transmitter.
Mixed Lithium-manganese-metal phosphate of formula Li x Fe y Mn 1-y M 1-(y+z) (PO 4) u (SO 4) v wherein M is a metal selected from the group Co, Ni, Al, Mg, Sn, Pb, Nb,B, Cu, Cr, Mo, Ru, V, Ga, Ca, Sr, Ba, Ti, Zr, Cd and mixtures thereof and wherein: 0.9 ≤ x ≤ 1.5, 0 < y < 1, and 0.001 ≤ y + z ≤ 1 and 0.75 ≤ u < 1,0 and < v ≤ 0,25. M is a metal selected from the group Co, Ni, Al, Mg, Sn, Pb, Nb,B, Cu, Cr, Mo, Ru, V, Ga, Ca, Sr, Ba, Ti, Zr, Cd and mixtures thereof
A method for distinguishing between a blood sample and a control solution sample, the method comprising the steps of: (a) introducing a sample into an electrochemical cell, the electrochemical cell comprising: (i) two electrodes in a spaced apart relationship; and (ii) a reagent; (b) applying a first test potential (E 1), having a first polarity, between the electrodes, and measuring a first current transient (i a (t)); (c) applying a second test potential (E 2), having the first polarity, between the electrodes, and measuring a second current transient (i b (t)); (d) applying a third test potential (E 3), having a second polarity, opposite to the first polarity, between the electrodes, and measuring a third current transient (i c (t)); (e) calculating, based on the first current transient, a first reference value related to the quantity of redox species in the sample; (f) calculating, based on the second and third current transients, a second reference value related to the reaction kinetics; and (g) determining, based on the first and second reference values, whether the sample is a control solution or a blood sample. (a) introducing a sample into an electrochemical cell, the electrochemical cell comprising: (i) two electrodes in a spaced apart relationship; and (ii) a reagent; (i) two electrodes in a spaced apart relationship; and (ii) a reagent; (b) applying a first test potential (E 1), having a first polarity, between the electrodes, and measuring a first current transient (i a (t)); (c) applying a second test potential (E 2), having the first polarity, between the electrodes, and measuring a second current transient (i b (t)); (d) applying a third test potential (E 3), having a second polarity, opposite to the first polarity, between the electrodes, and measuring a third current transient (i c (t)); (e) calculating, based on the first current transient, a first reference value related to the quantity of redox species in the sample; (f) calculating, based on the second and third current transients, a second reference value related to the reaction kinetics; and (g) determining, based on the first and second reference values, whether the sample is a control solution or a blood sample.
An aqueous oxidative dyeing composition characterized in that it comprises at least 45% by weight water, calculated to the total of the composition, at least one dyestuff, allantoin and an alkalizing agent selected form monoethanolamine, diethanolamine, triethanolamine, monoethanol methylamine, monoethanoldimethylamine, di-ethanolmethylamine, monoethanolethylamine, monoethanoldiethylamine, diethanolethylamine, monoethanolpropylamine, monoethanoldipropylamine, diethanolpropylamine, monoethanolbutylamine and diethanolbutylamine at a concentration between 2.5 and 20% by weight, calculated to the total of the composition and has a pH in the range of 8 to 11.
A semiconductor package (80, 100, 110), comprising: a package footprint comprising a plurality of solderable contact pads; a semiconductor device comprising a first power electrode and a control electrode on a first surface and a second power electrode on a second surface that opposes the first surface; a redistribution substrate comprising an insulating board having first major surface and a second major surface, wherein the first power electrode and the control electrode are mounted on the first major surface of the insulating board and the solderable contact pads of the package footprint are arranged on the second major surface of the insulating board; a contact clip comprising a web portion and one or more peripheral rim portions (35, 35'), wherein the web portion is mounted on and electrically coupled to the second power electrode and the peripheral rim portion (35, 35') is mounted on the first major surface of the insulating board, wherein the insulating board comprises an aperture (82; 98, 111) extending from the first major surface to the second major surface and the first power electrode or the control electrode or the peripheral rim portion (35, 35') of the contact clip forms a base of the aperture, characterized in that the first power electrode and the control electrode are mounted on and electrically insulated from the first major surface of the insulating board by insulating adhesive. a package footprint comprising a plurality of solderable contact pads; a semiconductor device comprising a first power electrode and a control electrode on a first surface and a second power electrode on a second surface that opposes the first surface; a redistribution substrate comprising an insulating board having first major surface and a second major surface, wherein the first power electrode and the control electrode are mounted on the first major surface of the insulating board and the solderable contact pads of the package footprint are arranged on the second major surface of the insulating board; a contact clip comprising a web portion and one or more peripheral rim portions (35, 35'), wherein the web portion is mounted on and electrically coupled to the second power electrode and the peripheral rim portion (35, 35') is mounted on the first major surface of the insulating board, wherein the insulating board comprises an aperture (82; 98, 111) extending from the first major surface to the second major surface and the first power electrode or the control electrode or the peripheral rim portion (35, 35') of the contact clip forms a base of the aperture, characterized in that the first power electrode and the control electrode are mounted on and electrically insulated from the first major surface of the insulating board by insulating adhesive.
A filter, comprising: a conductive box body, and an insulating substrate, a first conductor, and a second conductor that are arranged inside the conductive box body; wherein: the insulating substrate comprises a first surface and a second surface; the first conductor is arranged on the first surface of the insulating substrate, and a position on the second surface corresponding to the first conductor contacts with the conductive box body; and the second conductor is arranged on the first surface of the insulating substrate, the second conductor and the conductive box body form a coaxial resonant cavity together, an end of the second conductor is coupled with the first conductor, and the other end of the second conductor is coupled with the conductive box body; characterized in that the end of the second conductor is capacitance-coupled with the first conductor by using an interdigitated structure. the insulating substrate comprises a first surface and a second surface; the first conductor is arranged on the first surface of the insulating substrate, and a position on the second surface corresponding to the first conductor contacts with the conductive box body; and the second conductor is arranged on the first surface of the insulating substrate, the second conductor and the conductive box body form a coaxial resonant cavity together, an end of the second conductor is coupled with the first conductor, and the other end of the second conductor is coupled with the conductive box body; characterized in that the end of the second conductor is capacitance-coupled with the first conductor by using an interdigitated structure.
A table tennis bat comprising: a base, a handle attached to it, at least one elastic pad connected to the outer base surface, protrusions facing outwards from the elastic pad, evenly distributed and connected thereto, characterized in that the protrusions in their cross-section are made T-shaped in the form of a leg and a head combined with the leg, the legs being connected to the elastic pad, and the heads of the neighboring T-shaped protrusions being brought into contact therebetween.
A separator for fuel cell formed from a conductive resin composition, wherein the difference between the thermal expansion coefficient of the separator for fuel cell in the thickness direction and that in a direction perpendicular to the thickness direction is 20x10 -6 K -1 or smaller, wherein the conductive resin composition comprises: 20-60% by weight of a dimensionally anisotropic conductive filler; 20-40% by weight of a thermosetting resin; 15-30% by weight of a spherical filler; and 5-10% by weight of a carbon fiber; based on the total weight of the conductive resin composition obtained by a process comprising the steps of: preparing a mixed powder by dry-mixing a dimensionally anisotropic conductive filler, a thermosetting resin, a spherical filler, and a carbon fiber at room temperature; preparing a molten mixture by melt-mixing the mixed powder at a temperature where the thermosetting resin does not cure completely; preparing a powder comprising particles having a mean particle size of 500 mu m or smaller by solidifying the molten mixture by naturally cooling the molten mixture to obtain a solid matter, pulverizing the solid matter to obtain fine particles of the solid matter, and then classifying the fine particles; molding the powder filled in a mold into a sheet to obtain a preform at a temperature where the thermosetting resin does not cure completely; and molding the preform set in a mold for a separator for fuel cell at a temperature where the thermosetting resin cures completely. 20-60% by weight of a dimensionally anisotropic conductive filler; 20-40% by weight of a thermosetting resin; 15-30% by weight of a spherical filler; and 5-10% by weight of a carbon fiber; preparing a mixed powder by dry-mixing a dimensionally anisotropic conductive filler, a thermosetting resin, a spherical filler, and a carbon fiber at room temperature; preparing a molten mixture by melt-mixing the mixed powder at a temperature where the thermosetting resin does not cure completely; preparing a powder comprising particles having a mean particle size of 500 mu m or smaller by solidifying the molten mixture by naturally cooling the molten mixture to obtain a solid matter, pulverizing the solid matter to obtain fine particles of the solid matter, and then classifying the fine particles; molding the powder filled in a mold into a sheet to obtain a preform at a temperature where the thermosetting resin does not cure completely; and molding the preform set in a mold for a separator for fuel cell at a temperature where the thermosetting resin cures completely.
A method of operating a shuffler, comprising: moving at least one card to be shuffled from a card infeed area of the shuffler into a card inspection area of the shuffler with a card feed system; reading at least one indicia of the at least one card with an inspection device of the shuffler at the card inspection area; and if the inspection device of the shuffler detects one or more errors in reading the at least one indicia of the at least one card, moving the at least one card back to the card infeed area from the card inspection area with the card feed system of the shuffler. moving at least one card to be shuffled from a card infeed area of the shuffler into a card inspection area of the shuffler with a card feed system; reading at least one indicia of the at least one card with an inspection device of the shuffler at the card inspection area; and if the inspection device of the shuffler detects one or more errors in reading the at least one indicia of the at least one card, moving the at least one card back to the card infeed area from the card inspection area with the card feed system of the shuffler.
A connector bracket (130a, 130b, 330a, 330b) for connecting together adjacent panels or wall modules (110a, 110b, 310a, 310b), the connector bracket comprising: a mounting plate (160a, 360a, 360b); first and second panel-side connectors (140a', 140a") connected to the mounting plate, the first and second panel-side connectors being spaced apart and comprising respective first and second receiving portions (150a', 150a"), each of the first and second receiving portions including opposing hook-like protrusions (151a', 151a", 151b', 151b") that form one or more openings (152a', 152a") in the first and second receiving portions, the one or more openings being sized and configured to receive a coupling connector, and the first and second receiving portions being oriented at a predetermined angle relative to the mounting plate; and alignment features configured to facilitate alignment of the connector bracket with another connector bracket, the alignment features comprising; characterized in that, the connector bracket further comprises a cutout (190a, 190b) configured to receive a protrusion (200a, 200b) from the another connector bracket; and a protrusion (200a, 200b) configured to engage a cutout from the another connector bracket, the protrusion (200a, 200b) being formed on one of the first and second receiving portions. a mounting plate (160a, 360a, 360b); first and second panel-side connectors (140a', 140a") connected to the mounting plate, the first and second panel-side connectors being spaced apart and comprising respective first and second receiving portions (150a', 150a"), each of the first and second receiving portions including opposing hook-like protrusions (151a', 151a", 151b', 151b") that form one or more openings (152a', 152a") in the first and second receiving portions, the one or more openings being sized and configured to receive a coupling connector, and the first and second receiving portions being oriented at a predetermined angle relative to the mounting plate; and alignment features configured to facilitate alignment of the connector bracket with another connector bracket, the alignment features comprising; characterized in that, the connector bracket further comprises a cutout (190a, 190b) configured to receive a protrusion (200a, 200b) from the another connector bracket; and a protrusion (200a, 200b) configured to engage a cutout from the another connector bracket, the protrusion (200a, 200b) being formed on one of the first and second receiving portions.