mhurhangee/ep-ind-claims huggingface dataset:
Light system for preferably indirect room illumination, comprising a profiled rail and an LED strip-light running along the profiled rail, a plug-in profile part being plugged into a receptacle in the profiled rail, delimiting a profile groove, the LED strip-light being held in the profile groove and it being possible for light to shine out via the opening of the profile groove, characterized in that the opening of the profile groove is delimited by profile ribs (32, 34) of the profiled rail and of the plug-in profile part pointing toward each other with an undercut.
An arrangement comprising a rack and a medical device to be attached to the rack, wherein the rack comprises a first connection element and the medical device comprises a secend connection element which in an attached state of the rack and the medical device is releasably connected to the first connection element of the rack to establish an electrical connection between the medical device and the rack, characterized in that the first connection element and the secend connection element each comprise at least two electrical contacts (111.1, 211.1), wherein in the attached state of the rack and the medical device via the at least two electrical contacts (111.1, 211.1) both a low speed data connection (15, 25) and a high speed data connection (14, 24) between the medical device and the rack is established.
Coil wire support element comprising: a support member for supporting a coil wire, at least one coil wire section (120, 160) formed of coil wire that is coiled on the support member in at least one coil wire layer, at least one front and one back wall (130, 140) provided at the respective ends of the support member and protruding from the support member in a radial direction for providing lateral support to parts of the at least one coil wire layer in the at least one coil wire section (120, 160), wherein the height of the at least one coil wire layer, coiled in said one coil wire section on the support member, is larger in the radial direction than the height of the front wall protruding in said radial direction from the support member, characterized by an intermediate wall arranged to protrude in the radial direction from the support member between the front wall and the back wall, wherein one coil wire section, being the first coil wire section, is formed of the at least one coil wire layer extending between the front wall and the intermediate wall, wherein the height of the segment of the intermediate wall protruding from the support member in the radial direction is larger than the height of the front wall protruding from the support member in said radial direction, and the height of the segment of the intermediate wall protruding from the support member in the radial direction is larger than the height of the segment of the back wall protruding from the support member in the radial direction. a support member for supporting a coil wire, at least one coil wire section (120, 160) formed of coil wire that is coiled on the support member in at least one coil wire layer, at least one front and one back wall (130, 140) provided at the respective ends of the support member and protruding from the support member in a radial direction for providing lateral support to parts of the at least one coil wire layer in the at least one coil wire section (120, 160), wherein the height of the at least one coil wire layer, coiled in said one coil wire section on the support member, is larger in the radial direction than the height of the front wall protruding in said radial direction from the support member, characterized by an intermediate wall arranged to protrude in the radial direction from the support member between the front wall and the back wall, wherein one coil wire section, being the first coil wire section, is formed of the at least one coil wire layer extending between the front wall and the intermediate wall, wherein the height of the segment of the intermediate wall protruding from the support member in the radial direction is larger than the height of the front wall protruding from the support member in said radial direction, and the height of the segment of the intermediate wall protruding from the support member in the radial direction is larger than the height of the segment of the back wall protruding from the support member in the radial direction.
Method for detecting snow chains mounted on vehicle wheels, in particular for a motor vehicle having rear-wheel steering, with the detection of vehicle actions, wherein a predefined sequence of vehicle actions is interpreted as a process for mounting a snow chain, wherein the vehicle actions comprise opening of a vehicle door, closing of a vehicle door, a person exiting the vehicle, a person entering the vehicle, opening of a boot lid, closing of a boot lid, removal of a snow chain from a snow chain holder, vibrations at a wheel, the vehicle moving forwards and/or backwards, an opened vehicle door, according to which the presence of a mounted snow chain is inferred, wherein at least some of the subsequent vehicle actions are detected in a predefinable sequence: - opening of a vehicle door, - exiting of a person from the vehicle, - closing of a vehicle door, - opening a boot lid, - removal of a snow chain from a snow chain holder, - closing of a boot lid, - vibrations at a wheel, - opening of a vehicle door, - a person entering the vehicle, and - the vehicle moving forwards and/or backwards. - opening of a vehicle door, - exiting of a person from the vehicle, - closing of a vehicle door, - opening a boot lid, - removal of a snow chain from a snow chain holder, - closing of a boot lid, - vibrations at a wheel, - opening of a vehicle door, - a person entering the vehicle, and - the vehicle moving forwards and/or backwards.
A back light unit comprising: a plurality of side-emitting LED light sources formed on a printed circuit board; and a resin layer which is laminated on the printed circuit board and buries the LED light sources, wherein the resin layer is arranged to provide the same effects as a light guide plate and comprises a cured synthetic resin; characterised in that: the synthetic resin comprises a synthetic urethane acrylate oligomer and a monomer; wherein the urethane acrylate oligomer in the resin layer has a weight percentage of 10-21 wt% on the basis of the total weight of the resin layer; and wherein the monomer comprises a mixture consisting of IBOA, that is isobornyl acrylate, of 10-21%, HBA, that is hydroxybutyl acrylate, of 10-21% and HEMA, that is hydroxy metaethyl acrylate, of 10-21%, all amounts being weight percentages. a plurality of side-emitting LED light sources formed on a printed circuit board; and a resin layer which is laminated on the printed circuit board and buries the LED light sources, wherein the resin layer is arranged to provide the same effects as a light guide plate and comprises a cured synthetic resin; the synthetic resin comprises a synthetic urethane acrylate oligomer and a monomer; wherein the urethane acrylate oligomer in the resin layer has a weight percentage of 10-21 wt% on the basis of the total weight of the resin layer; and wherein the monomer comprises a mixture consisting of IBOA, that is isobornyl acrylate, of 10-21%, HBA, that is hydroxybutyl acrylate, of 10-21% and HEMA, that is hydroxy metaethyl acrylate, of 10-21%, all amounts being weight percentages.
An induction heating and wireless power transferring device, comprising: a first working coil unit comprising first and second working coils (AWC1, AWC2) connected in parallel; a rectification unit configured to rectify alternating current power supplied from a power supply unit to direct current power; a first inverter unit configured to receive the rectified DC power from the rectification unit, to perform a switching operation to convert the DC power into a resonant current, and to apply the resonant current to at least one of the first and second working coils (AWC1, AWC2); a first semiconductor switch that is connected to the first working coil to turn on or off the first working coil; a second semiconductor switch that is connected to the second working coil to turn on or off the second working coil; characterised in that a control unit configured to control respective operations of the first inverter unit and the first and second semiconductor switches (AS1, AS2) to detect a working coil with a target object located thereon among the first and second working coils (AWC1, AWC2) at a time point when the resonant current becomes zero wherein the control unit is configured to supply N pulses, wherein N is any one of 1, 2 and 3, to the first inverter unit at each time point when the resonant current becomes zero, and the control unit is configured to turn on and off the first and second semiconductor switches (AS1, AS2) sequentially and repeatedly in line with the N pulses before a location of the target object is detected. a first working coil unit comprising first and second working coils (AWC1, AWC2) connected in parallel; a rectification unit configured to rectify alternating current power supplied from a power supply unit to direct current power; a first inverter unit configured to receive the rectified DC power from the rectification unit, to perform a switching operation to convert the DC power into a resonant current, and to apply the resonant current to at least one of the first and second working coils (AWC1, AWC2); a first semiconductor switch that is connected to the first working coil to turn on or off the first working coil; a second semiconductor switch that is connected to the second working coil to turn on or off the second working coil; characterised in that a control unit configured to control respective operations of the first inverter unit and the first and second semiconductor switches (AS1, AS2) to detect a working coil with a target object located thereon among the first and second working coils (AWC1, AWC2) at a time point when the resonant current becomes zero wherein the control unit is configured to supply N pulses, wherein N is any one of 1, 2 and 3, to the first inverter unit at each time point when the resonant current becomes zero, and the control unit is configured to turn on and off the first and second semiconductor switches (AS1, AS2) sequentially and repeatedly in line with the N pulses before a location of the target object is detected.
A temperature sensor, comprising: a thermistor element in which a pair of lead-out wires (12a,12b) are connected to a thermistor; lead wires (13a,13b) respectively connected to the pair of lead-out wires (12a,12b); and a resin coating layer covering the thermistor element and connection parts (16a,16b) at which the lead-out wires (12a,12b) are respectively connected to the lead wires (13a,13b), wherein the resin coating layer includes an inner layer and an outer layer, the inner layer seals the thermistor element and the connection parts (16a,16b) and is made of an inner layer resin material that is made of a fluorine resin, and the outer layer is disposed around the inner layer, is made of an outer layer resin material that is made of a fluorine resin and has heat shrinkability and a melting point higher than a melting point of the inner layer resin material, and has a flat surface that is to be brought into surface contact with a temperature detected surface of a detection object and that is capable of being deformed following the temperature detected surface when a load is applied to the resin coating layer to press the temperature sensor against the temperature detected surface. a thermistor element in which a pair of lead-out wires (12a,12b) are connected to a thermistor; lead wires (13a,13b) respectively connected to the pair of lead-out wires (12a,12b); and a resin coating layer covering the thermistor element and connection parts (16a,16b) at which the lead-out wires (12a,12b) are respectively connected to the lead wires (13a,13b), wherein the resin coating layer includes an inner layer and an outer layer, the inner layer seals the thermistor element and the connection parts (16a,16b) and is made of an inner layer resin material that is made of a fluorine resin, and the outer layer is disposed around the inner layer, is made of an outer layer resin material that is made of a fluorine resin and has heat shrinkability and a melting point higher than a melting point of the inner layer resin material, and has a flat surface that is to be brought into surface contact with a temperature detected surface of a detection object and that is capable of being deformed following the temperature detected surface when a load is applied to the resin coating layer to press the temperature sensor against the temperature detected surface.
A method for generating a plurality of identifiers for transmission using visible light communication, VLC, comprising: identifying a number of light transmitting devices; generating the plurality of identifiers based at least in part on the number of light transmitting devices; storing the plurality of identifiers; determining a plurality of cyclic shifts for each identifier of the plurality of identifiers; removing identifiers from the plurality of identifiers that match the plurality of cyclic shifts; and assigning each of the number of light transmitting devices a unique identifier from among the identifiers that remain in the plurality of identifiers after removing the identifiers that match the plurality of cyclic shifts, wherein generating the plurality of identifiers comprises: selecting an identifier length and an alphabet for generating the plurality of identifiers. identifying a number of light transmitting devices; generating the plurality of identifiers based at least in part on the number of light transmitting devices; storing the plurality of identifiers; determining a plurality of cyclic shifts for each identifier of the plurality of identifiers; removing identifiers from the plurality of identifiers that match the plurality of cyclic shifts; and assigning each of the number of light transmitting devices a unique identifier from among the identifiers that remain in the plurality of identifiers after removing the identifiers that match the plurality of cyclic shifts, wherein generating the plurality of identifiers comprises: selecting an identifier length and an alphabet for generating the plurality of identifiers.
Compounds of the formula I: in which m and n are each 1, and R 1 and R 2, independently of one another, denote an alkyl radical having 1 to 15 C atoms or an alkenyl or alkynyl radical having 2 to 15 C atoms, which are in each case optionally mono- or polyhalogenated, is excluded. m and n are each 1, and R 1 and R 2, independently of one another, denote an alkyl radical having 1 to 15 C atoms or an alkenyl or alkynyl radical having 2 to 15 C atoms, which are in each case optionally mono- or polyhalogenated,
A method for detecting the position of an interface of a liquid in a vessel comprising the following steps: • projecting light onto at least one illumination position, • imaging the at least one illumination position onto at least one photodetector, • varying the vertical distance between the at least one illumination position and the interface in the vessel, • detecting the maximum value of the measurement signal of the at least one photodetector when the vertical distance is varied, • determining the position of the illumination position at the maximum value of the measurement signal as the position of the interface, characterized by: • projecting light from at least one light source simultaneously onto plural point-shaped illumination positions having different positions in space, the illumination positions having a three-dimensional arrangement or an arrangement in a plane, • determining the maximum value of the measurement signal of at least one photodetector when the vertical distance between the plural point-shaped illumination-positions and the interface is varied. • projecting light onto at least one illumination position, • imaging the at least one illumination position onto at least one photodetector, • varying the vertical distance between the at least one illumination position and the interface in the vessel, • detecting the maximum value of the measurement signal of the at least one photodetector when the vertical distance is varied, • determining the position of the illumination position at the maximum value of the measurement signal as the position of the interface, • projecting light from at least one light source simultaneously onto plural point-shaped illumination positions having different positions in space, the illumination positions having a three-dimensional arrangement or an arrangement in a plane, • determining the maximum value of the measurement signal of at least one photodetector when the vertical distance between the plural point-shaped illumination-positions and the interface is varied.
An automated method for analyzing a circuit embedded in an electronic board having a plurality of programmable FPGA chips that are interconnected and programmed, according to a predetermined logic design, with such board setting up inter-chip links connecting logic blocks belonging to different chips so as to form paths, each of which is intended to have a signal travel therethrough, with each path comprising at least two intra-chip portions and at least one inter-chip portion, with said method being characterized by: - setting up a graph representing the board and wherein each link represents an inter-chip portion or an intra-chip portion; - determining, for each chip, the time for travelling over each path portion that passes through said chip, with each travel time corresponding to the sum of the times for carrying out the logical operations applied to the signal in the chip; - determining the inter-chip time for travelling over each inter-chip portion represented by a link in the graph, - determining the time for travelling over each path of the system embedded in the board, by summing the intra-chip travel times, and the inter-chip travel times associated with each link of the graph. - setting up a graph representing the board and wherein each link represents an inter-chip portion or an intra-chip portion; - determining, for each chip, the time for travelling over each path portion that passes through said chip, with each travel time corresponding to the sum of the times for carrying out the logical operations applied to the signal in the chip; - determining the inter-chip time for travelling over each inter-chip portion represented by a link in the graph, - determining the time for travelling over each path of the system embedded in the board, by summing the intra-chip travel times, and the inter-chip travel times associated with each link of the graph.
A system for automatically controlling an electrode drying, the system comprising: an oven which provides a space where an electrode sheet is moved and dried, includes a drying means (114, 115) which applies hot air and/or radiant heat to the electrode sheet, and is divided into a plurality of drying sections (111, 112, 113); a measuring unit which collects information on a dried amount of the electrode sheet and transmits the collected information to a controller; and the controller which determines a dried level of the electrode sheet based on the information on the dried amount received from the measuring unit, and controls a drying intensity of the oven according to the determined dried level, wherein the controller independently controls the plurality of drying sections (111, 112, 113), characterized in that the controller determines the dried level of the electrode sheet as one of 5 levels of normal level, overdried level, non-dried level, excessively overdried level, and excessively non-dried level, in that, when the dried level of the electrode sheet is determined as the overdried level or the non-dried level, the controller controls to adjust the drying intensity for one drying section (111, 112, 113), and in that, when the dried level of the electrode sheet is determined as the excessively overdried level or the excessively non-dried level, the controller controls to adjust the drying intensity of two or more drying sections (111, 112, 113) together. an oven which provides a space where an electrode sheet is moved and dried, includes a drying means (114, 115) which applies hot air and/or radiant heat to the electrode sheet, and is divided into a plurality of drying sections (111, 112, 113); a measuring unit which collects information on a dried amount of the electrode sheet and transmits the collected information to a controller; and the controller which determines a dried level of the electrode sheet based on the information on the dried amount received from the measuring unit, and controls a drying intensity of the oven according to the determined dried level, wherein the controller independently controls the plurality of drying sections (111, 112, 113), characterized in that the controller determines the dried level of the electrode sheet as one of 5 levels of normal level, overdried level, non-dried level, excessively overdried level, and excessively non-dried level, in that, when the dried level of the electrode sheet is determined as the overdried level or the non-dried level, the controller controls to adjust the drying intensity for one drying section (111, 112, 113), and in that, when the dried level of the electrode sheet is determined as the excessively overdried level or the excessively non-dried level, the controller controls to adjust the drying intensity of two or more drying sections (111, 112, 113) together.
An apparatus for exercising the movement and dexterity of the human body with a connecting rod, a handle and a mounting element at the lower end of the connecting rod to hold a shaft axially connected to a wheel, characterized in that the shaft axially connected to the wheel is loosely and rotatably mounted either in a bore of the mounting element, whereby the mounting element (during the rolling on the floor of the wheel) on the shaft is slideable perpendicularly to the direction of rotation axially along the central axis of the wheel, or in a slot in the mounting element, whereby the mounting element (during the rolling on the floor of the wheel) on the shaft is moveable perpendicularly and vertically to the direction of rotation axially along the central axis of the wheel.
An electric power steering apparatus that calculates a current command value based on at least a steering torque, PWM-controls a 3-phase motor with an inverter based on said current command value, detects currents of said 3-phase motor, feedbacks said detected 3-phase motor currents, and assist-controls a steering system of a vehicle, characterized in that said electric power steering apparatus having: a 3-shunt control function to perform a 3-shunt PWM-control with a first 3-phase detected current values based on down-stream 3-shunt of said inverter; and a 1-shunt control function to perform a 1-shunt PWM-control with a second 3-phase detected current values based on down-stream 1-shunt of said inverter; and a switching function (110, 120) to switch from said 3-shunt control function to said 1-shunt function when a failure of current detection circuit system in relation to said first 3-phase detected current values is detected. a 3-shunt control function to perform a 3-shunt PWM-control with a first 3-phase detected current values based on down-stream 3-shunt of said inverter; and a 1-shunt control function to perform a 1-shunt PWM-control with a second 3-phase detected current values based on down-stream 1-shunt of said inverter; and a switching function (110, 120) to switch from said 3-shunt control function to said 1-shunt function when a failure of current detection circuit system in relation to said first 3-phase detected current values is detected.