mhurhangee/ep-ind-claims huggingface dataset:
A component structure, for connecting a power module and an external circuit, comprising: a first bus bar (410, 710, 1310), having one end extending to a first plane A to form a first connecting terminal (415, 715, 1315); a second bus bar (420, 720, 1320), comprising a front portion of the second bus bar (421, 721, 1321) and a rear portion of the second bus bar (422, 722, 1322), wherein the front portion of the second bus bar is laminated in parallel with the first bus bar, and the rear portion of the second bus bar is extended to a second plane B to form a second connecting terminal (425, 725, 1325); and a third bus bar (430, 730, 1330) configured to be connected to the external circuit, wherein the third bus bar is settled in parallel with the rear portion of the second bus bar, to reduce a parasitic inductance between the first connecting terminal and the second connecting terminal, characterized in that, the external circuit (801, 901) includes the third busbar and comprises a capacitor (C, C1, C2) and a connecting terminal; terminals of the power module are led to the first connecting terminal and the second connecting terminal, which are positive (Vbus+) and negative (Vbus-) ports of the power module, through the first bus bar and the second bus bar, and electrically connected to the external circuit (801, 901) through a third connecting terminal of the third bus bar and the connecting terminal of the external circuit (801, 901); the first bus bar comprises one bending portion; and the second bus bar comprises two bending portions (4212, 4222). a first bus bar (410, 710, 1310), having one end extending to a first plane A to form a first connecting terminal (415, 715, 1315); a second bus bar (420, 720, 1320), comprising a front portion of the second bus bar (421, 721, 1321) and a rear portion of the second bus bar (422, 722, 1322), wherein the front portion of the second bus bar is laminated in parallel with the first bus bar, and the rear portion of the second bus bar is extended to a second plane B to form a second connecting terminal (425, 725, 1325); and a third bus bar (430, 730, 1330) configured to be connected to the external circuit, wherein the third bus bar is settled in parallel with the rear portion of the second bus bar, to reduce a parasitic inductance between the first connecting terminal and the second connecting terminal,
A method of fabricating a light emitting device, the method comprising: forming a sacrificial layer on the substrate, wherein the sacrificial layer is suitable to be dissolved by the energy of a laser in a laser lift-off step and forming a growth layer on the sacrificial layer; wherein the method further comprises: forming a patterned portion of a top surface of the growth layer after forming the growth layer; forming a light emitting structure comprising a first conductive type semiconductor layer, an active layer, and a second conductive type semiconductor layer on the growth layer; irradiating a laser onto the sacrificial layer passing through the substrate, thereby to dissolve the sacrificial layer for lifting-off the substrate and removing the substrate and first portions of the sacrificial layer, whereby there remain second portions of the sacrificial layer on the growth layer; and removing the second portions of the sacrificial layer and the growth layer using an etching process, characterized in that the growth layer 120 is of Al 2 O 3 having a polycrystalline or monocrystalline structure. forming a sacrificial layer on the substrate, wherein the sacrificial layer is suitable to be dissolved by the energy of a laser in a laser lift-off step and forming a growth layer on the sacrificial layer; wherein the method further comprises: forming a patterned portion of a top surface of the growth layer after forming the growth layer; forming a light emitting structure comprising a first conductive type semiconductor layer, an active layer, and a second conductive type semiconductor layer on the growth layer; irradiating a laser onto the sacrificial layer passing through the substrate, thereby to dissolve the sacrificial layer for lifting-off the substrate and removing the substrate and first portions of the sacrificial layer, whereby there remain second portions of the sacrificial layer on the growth layer; and removing the second portions of the sacrificial layer and the growth layer using an etching process, characterized in that the growth layer 120 is of Al 2 O 3 having a polycrystalline or monocrystalline structure.
A system for associating a symptom with a medical condition, the system comprising a server arrangement, associated with a user device, the server arrangement is operable to: (a) provide, to the user device, a set of user activities; (b) receive, from the user device, information relating to a selection of a user activity from the set of user activities; (c) receive, from the user device, a user input associated with the selected user activity; (d) analyse the user input and assign a performance score thereto; (e) identify, based on the performance score, one or more symptoms; and (f) assign a severity score to the symptom for associating the symptom with a medical condition, characterized in that, the identification of the one or more symptoms based on the performance score, comprises comparing at least two performance scores, wherein the at least two performance scores correspond to a new user input and a past user input associated with the selected user activity. (a) provide, to the user device, a set of user activities; (b) receive, from the user device, information relating to a selection of a user activity from the set of user activities; (c) receive, from the user device, a user input associated with the selected user activity; (d) analyse the user input and assign a performance score thereto; (e) identify, based on the performance score, one or more symptoms; and (f) assign a severity score to the symptom for associating the symptom with a medical condition,
Drive configuration for the motorized displacement of a displacement element of a motor vehicle, at least one drive having an electrical drive motor, in particular a DC motor, and a drive controller, which is associated with the drive and connected to a supply voltage U v, being provided, the drive not being designed as self-locking, so that in the case of a non-motorized displacement of the displacement element, the drive motor operates as a generator and generates a generator voltage U G, two of said drives being provided, characterized in that the drive controller is equipped with an overvoltage protector, which can be triggered by exceeding a limiting supply voltage U v, and in that the configuration is further made so that the overvoltage protector can additionally be triggered by a non-motorised displacement of the displacement element if a limiting generator voltage U G is exceeded, in that the drive controller for activating the drive motors of the drives has an H-bridge circuit with overvoltage protector in each case, and in that the respective corresponding supply terminals (18, 19) of the H-bridge circuits are interconnected.
A method of producing an aromatised liquid, the method comprising: a) providing a gas comprising aroma derived from cocoa or cocoa-based products, and water; b) condensing the aroma and water comprising gas, to provide an aromatised liquid aqueous phase and a gas phase; and c) subjecting the gas phase obtained by step b) to pressurisation in the presence of an absorption liquid to produce an aromatised liquid. a) providing a gas comprising aroma derived from cocoa or cocoa-based products, and water; b) condensing the aroma and water comprising gas, to provide an aromatised liquid aqueous phase and a gas phase; and c) subjecting the gas phase obtained by step b) to pressurisation in the presence of an absorption liquid to produce an aromatised liquid.
Driver for an LED load comprising: - input terminals (101a, 101b) for an AC voltage; - output terminals (104a, 104b) for supplying the LED load, - a detection circuitry configured to obtain a signal representing a frequency of the AC voltage and an amplitude of a peak of each cycle of the AC voltage, and - a control circuit being connected to the detection circuitry and supplied with said signal, wherein the driver comprises a switched isolated converter, wherein the control circuit is arranged on a secondary side of the switched isolated converter, wherein the detection circuitry comprises a reference diode being configured to compare the AC voltage with a defined threshold voltage, and wherein said signal includes timings of the AC voltage crossing the threshold voltage, characterized in that: the detection circuit is connected to the input terminals (101a, 101b), wherein the detection circuit is arranged on a primary side of the switched isolated converter. - input terminals (101a, 101b) for an AC voltage; - output terminals (104a, 104b) for supplying the LED load, - a detection circuitry configured to obtain a signal representing a frequency of the AC voltage and an amplitude of a peak of each cycle of the AC voltage, and - a control circuit being connected to the detection circuitry and supplied with said signal, wherein the driver comprises a switched isolated converter, wherein the control circuit is arranged on a secondary side of the switched isolated converter, wherein the detection circuitry comprises a reference diode being configured to compare the AC voltage with a defined threshold voltage, and wherein said signal includes timings of the AC voltage crossing the threshold voltage, characterized in that: the detection circuit is connected to the input terminals (101a, 101b), wherein the detection circuit is arranged on a primary side of the switched isolated converter. wherein the driver comprises a switched isolated converter, wherein the control circuit is arranged on a secondary side of the switched isolated converter, wherein the detection circuitry comprises a reference diode being configured to compare the AC voltage with a defined threshold voltage, and wherein said signal includes timings of the AC voltage crossing the threshold voltage, characterized in that: the detection circuit is connected to the input terminals (101a, 101b), wherein the detection circuit is arranged on a primary side of the switched isolated converter.
A portable dishwasher comprising: (a) a housing including a base partially defining a wash chamber having a floor and a mechanical space beneath the floor, the floor having one or more drain openings (130, 132); (b) an operational sump extending downwardly from the floor into the mechanical space communicating with the wash chamber through one of said drain openings (130, 132); (c) a pump having a pump inlet communicating with the operational sump and an outlet communicating with the wash chamber; (d) a fresh water reservoir disposed within the mechanical space and a fresh water valve controlling communication between the fresh water reservoir and the pump inlet; and (e) a used water reservoir separate from the fresh water reservoir, the used water reservoir being disposed within the mechanical space and communicating with the wash chamber through one of said drain openings (130, 132), and a used water valve controlling communication between the wash chamber and the used water reservoir; wherein the fresh water reservoir is permanently mounted to the housing and the used water reservoir is removable from the housing; and wherein the used water reservoir includes an inlet opening adapted for connection to the used water valve and a closure arranged to block the inlet opening upon removal of the used water reservoir from the housing. (a) a housing including a base partially defining a wash chamber having a floor and a mechanical space beneath the floor, the floor having one or more drain openings (130, 132); (b) an operational sump extending downwardly from the floor into the mechanical space communicating with the wash chamber through one of said drain openings (130, 132); (c) a pump having a pump inlet communicating with the operational sump and an outlet communicating with the wash chamber; (d) a fresh water reservoir disposed within the mechanical space and a fresh water valve controlling communication between the fresh water reservoir and the pump inlet; and (e) a used water reservoir separate from the fresh water reservoir, the used water reservoir being disposed within the mechanical space and communicating with the wash chamber through one of said drain openings (130, 132), and a used water valve controlling communication between the wash chamber and the used water reservoir; wherein the fresh water reservoir is permanently mounted to the housing and the used water reservoir is removable from the housing; and wherein the used water reservoir includes an inlet opening adapted for connection to the used water valve and a closure arranged to block the inlet opening upon removal of the used water reservoir from the housing. wherein the fresh water reservoir is permanently mounted to the housing and the used water reservoir is removable from the housing; and wherein the used water reservoir includes an inlet opening adapted for connection to the used water valve and a closure arranged to block the inlet opening upon removal of the used water reservoir from the housing.
A method comprising: receiving, by an apparatus, a Media Access Control, MAC, frame destined for a destination device; dividing, by the apparatus, the MAC frame into frame fragments; coding the frame fragments into encoded cells; and causing, by the apparatus, transmission of selected subsets of the encoded cells, as distinct flows of the encoded cells, by respective optical physical layer transmitter devices reachable by the destination device. receiving, by an apparatus, a Media Access Control, MAC, frame destined for a destination device; dividing, by the apparatus, the MAC frame into frame fragments; coding the frame fragments into encoded cells; and causing, by the apparatus, transmission of selected subsets of the encoded cells, as distinct flows of the encoded cells, by respective optical physical layer transmitter devices reachable by the destination device.
An image forming apparatus, comprising: an image former that forms an image on a printing paper; and an induction heating fusing device that fuses the image on the printing paper and comprises: a resonance circuit comprising an inductor that is inductively heated by a current to generate fusing heat; a driver circuit that applies a current to the resonance circuit; and a controller configured to drive the driver circuit in A-mode where fusing operation is performed, and to determine whether the apparatus has an error in B-mode where the current applied to the resonance circuit by the driver circuit is limited under a preset level, wherein the controller is configured to determine whether the apparatus has the error based on a power consumption value of at least one of the resonance circuit and the driver circuit, characterized in that the driver circuit is driven in the B-mode based on a first frequency and a second frequency, and the power consumption value comprises: a first power consumption value that is estimated when the driver circuit is driven by the first frequency; and a second power consumption value that is estimated when the driver circuit is driven by the second frequency. an image former that forms an image on a printing paper; and an induction heating fusing device that fuses the image on the printing paper and comprises: a resonance circuit comprising an inductor that is inductively heated by a current to generate fusing heat; a driver circuit that applies a current to the resonance circuit; and a controller configured to drive the driver circuit in A-mode where fusing operation is performed, and to determine whether the apparatus has an error in B-mode where the current applied to the resonance circuit by the driver circuit is limited under a preset level, a resonance circuit comprising an inductor that is inductively heated by a current to generate fusing heat; a driver circuit that applies a current to the resonance circuit; and a controller configured to drive the driver circuit in A-mode where fusing operation is performed, and to determine whether the apparatus has an error in B-mode where the current applied to the resonance circuit by the driver circuit is limited under a preset level, wherein the controller is configured to determine whether the apparatus has the error based on a power consumption value of at least one of the resonance circuit and the driver circuit, characterized in that the driver circuit is driven in the B-mode based on a first frequency and a second frequency, and the power consumption value comprises: a first power consumption value that is estimated when the driver circuit is driven by the first frequency; and a second power consumption value that is estimated when the driver circuit is driven by the second frequency. a first power consumption value that is estimated when the driver circuit is driven by the first frequency; and a second power consumption value that is estimated when the driver circuit is driven by the second frequency.
Slatted base, in particular for a bed, comprising a head part to support at least the head of a person, and a foot part to support at least the legs and the feet of a person, wherein the head part is pivotable in relation to the foot part about an axis of rotation extending transversely to the longitudinal extension of the head part and foot part (2, 3), wherein the head part is designed to be translationally movable in relation to the foot part in the direction of the longitudinal extension of the head part and the foot part (2, 3), wherein the slatted base comprises a frame which supports the head part and the foot part, wherein the frame comprises and outer frame and inner frame, characterized in that the inner frame has longitudinal spars (30, 31) which carry U profiles on their outer side facing the outer frame, which U profiles serve the movable receipt of slats (76, 82).
A robot teaching system comprising: a photographing unit configured to photograph an image including a welding target and a marker installed on an industrial robot; and a camera coordinate system setting unit configured to set a camera coordinate system on a basis of the marker included in the image; characterized in that the robot teaching system further comprises: an operation path setting unit configured to set an operation path of the industrial robot on a basis of a welding position of the welding target included in the image in the camera coordinate system; and a program generation unit configured to generate a working program for operating the industrial robot, while converting the operation path of the industrial robot set by the operation path setting unit from the camera coordinate system into a robot coordinate system set in a robot control apparatus on a basis of a position of the marker installed on the industrial robot. a photographing unit configured to photograph an image including a welding target and a marker installed on an industrial robot; and a camera coordinate system setting unit configured to set a camera coordinate system on a basis of the marker included in the image; characterized in that the robot teaching system further comprises: an operation path setting unit configured to set an operation path of the industrial robot on a basis of a welding position of the welding target included in the image in the camera coordinate system; and a program generation unit configured to generate a working program for operating the industrial robot, while converting the operation path of the industrial robot set by the operation path setting unit from the camera coordinate system into a robot coordinate system set in a robot control apparatus on a basis of a position of the marker installed on the industrial robot. an operation path setting unit configured to set an operation path of the industrial robot on a basis of a welding position of the welding target included in the image in the camera coordinate system; and a program generation unit configured to generate a working program for operating the industrial robot, while converting the operation path of the industrial robot set by the operation path setting unit from the camera coordinate system into a robot coordinate system set in a robot control apparatus on a basis of a position of the marker installed on the industrial robot.
Process for preparing aminosiloxanes, wherein an alkoxy-rich partial hydrolyzate of silanes and silane mixtures independently selected from the general formulae I, Ia, Ib and II [R 1 3 Si(OR 2)] (Ia), [R 1 2 Si(OR 2) 2] (Ib), [Si(OR 2) 4] and [R 1 Si(OR 2) 3] is reacted with one or more aminosilanes independently selected from the general formulae IIIa to Va or a partial hydrolyzate thereof [R 3a Si(OR 4) 3] (IIIa), [R 3a 2 Si(OR 4) 2] (IVa) and [R 3a 3 Si(OR 4)] (Va) in the presence of a basic catalyst, where R 1 is a monovalent C 1 -C 20 -hydrocarbon radical which is unsubstituted or substituted by halogen atoms, R 2 and R 4 may be the same or different and are a hydrogen atom or C 1 -C 20 -hydrocarbon radical which is unsubstituted or substituted by halogen atoms, R 3a is a monovalent C 1 -C 20 -hydrocarbon radical comprising one or more basic nitrogen atoms, or a monovalent C 1 -C 20 -hydrocarbon radical which is unsubstituted or substituted by halogen atoms. a basic catalyst, where R 1 is a monovalent C 1 -C 20 -hydrocarbon radical which is unsubstituted or substituted by halogen atoms, R 2 and R 4 may be the same or different and are a hydrogen atom or C 1 -C 20 -hydrocarbon radical which is unsubstituted or substituted by halogen atoms, R 3a is a monovalent C 1 -C 20 -hydrocarbon radical comprising one or more basic nitrogen atoms, or a monovalent C 1 -C 20 -hydrocarbon radical which is unsubstituted or substituted by halogen atoms.
A process for producing rejuvenated asphalt granulate, comprising the steps of - milling or crushing asphalt to provide reclaimed asphalt; - comminuting and/or screening said reclaimed asphalt to obtain asphalt granulate; - adding a rejuvenating agent; - storing said asphalt granulate with said rejuvenating agent at less than 60°C for a period of at least 24 hours to obtain rejuvenated asphalt granulate; wherein said adding of the rejuvenating agent is effected before said comminution, after said comminution, or during said comminution of the reclaimed asphalt, or before the screening, after the screening, or during the screening of the reclaimed asphalt, or before the milling, or during the milling. - milling or crushing asphalt to provide reclaimed asphalt; - comminuting and/or screening said reclaimed asphalt to obtain asphalt granulate; - adding a rejuvenating agent; - storing said asphalt granulate with said rejuvenating agent at less than 60°C for a period of at least 24 hours to obtain rejuvenated asphalt granulate;
A method of delivering a Contention Free-End, CF-End, frame performed by a device which communicates through a wireless local area network, LAN, the method comprising: checking a Basic Service Set ID, BSSID, in a received CF-End frame sent from a first station; broadcasting the received CF-End frame after a Short Inter Frame Spacing, SIFS, if the BSSID in the received CF-End frame matches a BSSID of a Basic Service Set, BSS, so that the CF-End frame is deliverable to a second station. checking a Basic Service Set ID, BSSID, in a received CF-End frame sent from a first station; broadcasting the received CF-End frame after a Short Inter Frame Spacing, SIFS, if the BSSID in the received CF-End frame matches a BSSID of a Basic Service Set, BSS, so that the CF-End frame is deliverable to a second station.