mhurhangee/ep-ind-claims huggingface dataset:
A scanning lidar suitable for use on an automated vehicle, said lidar comprising: a laser that generates a pulsed laser beam; a beam-steering means that steers the pulsed laser beam in a direction within a field-of-view of the lidar, wherein the field-of-view is rectangular-shaped; a controller in communication with the laser and the beam-steering means, wherein the controller coordinates operation of the laser and the beam-steering means such that the lidar is characterized by an angular-resolution, and the controller operates the beam-steering means in accordance with a first rectangular spiral pattern having an aspect-ratio corresponding to the field-of-view, wherein the first rectangular spiral pattern causes a scan-segment to be skipped during a present-scan of the field-of-view due to the aspect-ratio, the scan-segment being a string of two or more beams-spots aligned in either a vertical or horizontal direction, whereby the field-of-view is not scanned entirely at the angular-resolution. a laser that generates a pulsed laser beam; a beam-steering means that steers the pulsed laser beam in a direction within a field-of-view of the lidar, wherein the field-of-view is rectangular-shaped; a controller in communication with the laser and the beam-steering means, wherein the controller coordinates operation of the laser and the beam-steering means such that the lidar is characterized by an angular-resolution, and the controller operates the beam-steering means in accordance with a first rectangular spiral pattern having an aspect-ratio corresponding to the field-of-view, wherein the first rectangular spiral pattern causes a scan-segment to be skipped during a present-scan of the field-of-view due to the aspect-ratio, the scan-segment being a string of two or more beams-spots aligned in either a vertical or horizontal direction, whereby the field-of-view is not scanned entirely at the angular-resolution.
An electrochromic element comprising: a first electrode; a second electrode that is opposed to and apart from the first electrode; and an electrolyte that is between the first electrode and the second electrode, wherein the first electrode includes a polymerized product of an electrochromic composition that includes a radical-polymerizable compound including a triarylamine backbone and a radical-polymerizable functional group, and wherein the second electrode includes a compound represented by General Formula below: where R 1 and R 2 each denote a hydrogen atom, an aryl group including 14 or less carbon atoms, a heteroaryl group including 14 or less carbon atoms, a branched alkyl group including 10 or less carbon atoms, an alkenyl group including 10 or less carbon atoms, a cycloalkyl group including 10 or less carbon atoms, or a functional group that is capable of binding to a hydroxyl group, wherein the functional group that is capable of binding to a hydroxyl group is a phosphonate group, a phosphate group, a carboxylate group, a sulfonyl group, a silyl group, or a silanol group; n and m each denote an integer, wherein both of m and n in the General Formula are 4 or more but 10 or less; and X - denotes a charge-neutralizing ion. a first electrode; a second electrode that is opposed to and apart from the first electrode; and an electrolyte that is between the first electrode and the second electrode, wherein the first electrode includes a polymerized product of an electrochromic composition that includes a radical-polymerizable compound including a triarylamine backbone and a radical-polymerizable functional group, and wherein the second electrode includes a compound represented by General Formula below: where R 1 and R 2 each denote a hydrogen atom, an aryl group including 14 or less carbon atoms, a heteroaryl group including 14 or less carbon atoms, a branched alkyl group including 10 or less carbon atoms, an alkenyl group including 10 or less carbon atoms, a cycloalkyl group including 10 or less carbon atoms, or a functional group that is capable of binding to a hydroxyl group, wherein the functional group that is capable of binding to a hydroxyl group is a phosphonate group, a phosphate group, a carboxylate group, a sulfonyl group, a silyl group, or a silanol group; n and m each denote an integer, wherein both of m and n in the General Formula are 4 or more but 10 or less; and X - denotes a charge-neutralizing ion.
Enclosure assembly for at least one connector, comprising: an enclosure, the enclosure having a connector volume configured to receive the connector and an opening at least at a rearward end, a strain relief element being adapted to receive a cable, the strain relief element being provided with a relief portion at one end, the relief portion being configured to support the cable elastically, and with a fastening portion, the fastening portion in a mounted state being arranged at least partially within the opening and affixing the strain relief element to the enclosure (1 a), characterized in that, in a pre-mounted state, the enclosure (1 a) and the strain relief element are adapted to be slid relative to each other in a forward direction up to a forward position, and in that in the forward position the enclosure is automatically engaged in a friction lock with the fastening portion. an enclosure, the enclosure having a connector volume configured to receive the connector and an opening at least at a rearward end, a strain relief element being adapted to receive a cable, the strain relief element being provided with a relief portion at one end, the relief portion being configured to support the cable elastically, and with a fastening portion, the fastening portion in a mounted state being arranged at least partially within the opening and affixing the strain relief element to the enclosure (1 a), characterized in that, in a pre-mounted state, the enclosure (1 a) and the strain relief element are adapted to be slid relative to each other in a forward direction up to a forward position, and in that in the forward position the enclosure is automatically engaged in a friction lock with the fastening portion.
Protective circuit for an LED which is connected between two node points (A, C), which, in the event of an interruption defect in the LED, takes up the current flow between the node points (A, C), comprising a bridging circuit part which has a high resistance during normal operation of the LED and a trigger component part provided separately from said bridging circuit part, wherein the bridging circuit part contains two electronic switch elements (T1, T2), each of which has two switch connections and one control connection, wherein one switch connection of one of the two switch elements is connected to a connection of the LED and one switch connection of the other switch elements is connected to the other connection of the LED, wherein the respective other switch connection of the two switch elements (T1, T2) is connected in each case to the control connection of the other switch element (T2, T1), characterized in that the trigger component part is formed by a zener diode, wherein the zener diode is connected in parallel with one switch element, and in that the zener diode is designed to take up the current flow between the node points (A, C) in the event of the occurrence of an interruption defect by virtue of switchover to breakdown until the voltage drop produced in the process across the zener diode switches over the bridging circuit from the high-resistance state to a low-resistance state, in which one switch element is on, as a result of which the voltage drop across the zener diode is reduced.
An apparatus configured to determine whether the apparatus is removably coupled to a medication injection device and to determine the size of a dose delivered by the medication injection device during dose delivery, the apparatus comprising: a plurality of sensing elements; a processor in communication with the plurality of sensing elements, the processor being configured to execute computer-readable instructions that cause the processor to: obtain a set of voltage measurements from each of the plurality of sensing elements; determine two-dimensional data representative of a magnetic field of a magnetic component of the medication injection device; determine one-dimensional data based on the two-dimensional data; and determine, based on the one-dimensional data, whether the set of voltage measurements is indicative of the apparatus being coupled to the medication injection device; and determine the size of a dose delivered by the medication injection device, when the apparatus is coupled to the medication injection device, based on the output of the plurality of sensing elements during dose delivery. a plurality of sensing elements; a processor in communication with the plurality of sensing elements, the processor being configured to execute computer-readable instructions that cause the processor to: obtain a set of voltage measurements from each of the plurality of sensing elements; determine two-dimensional data representative of a magnetic field of a magnetic component of the medication injection device; determine one-dimensional data based on the two-dimensional data; and determine, based on the one-dimensional data, whether the set of voltage measurements is indicative of the apparatus being coupled to the medication injection device; and determine the size of a dose delivered by the medication injection device, obtain a set of voltage measurements from each of the plurality of sensing elements; determine two-dimensional data representative of a magnetic field of a magnetic component of the medication injection device; determine one-dimensional data based on the two-dimensional data; and determine, based on the one-dimensional data, whether the set of voltage measurements is indicative of the apparatus being coupled to the medication injection device; and determine the size of a dose delivered by the medication injection device, when the apparatus is coupled to the medication injection device, based on the output of the plurality of sensing elements during dose delivery.
An apparatus comprising: circuitry configured to: collect data indicative of power flows at multiple locations in an electrical grid; receive one or more parameters for generation of a customized forecast indicative of predicted power flows associated with one or more of the multiple locations in the electrical grid over a defined time period; select a subset of the collected data, wherein the subset satisfies the one or more parameters; produce, from the selected subset of the collected data, a model to predict power flows in the electrical grid associated with the one or more locations; determine whether the model is validated by determining whether a predicted production of power minus predicted losses is within a predefined range of a predicted consumption of power at the one or more locations in the electrical grid; and produce, in response to a determination that the model is validated and based on the one or more parameters, the customized forecast of predicted power flows associated with the one or more locations for the defined time period. collect data indicative of power flows at multiple locations in an electrical grid; receive one or more parameters for generation of a customized forecast indicative of predicted power flows associated with one or more of the multiple locations in the electrical grid over a defined time period; select a subset of the collected data, wherein the subset satisfies the one or more parameters; produce, from the selected subset of the collected data, a model to predict power flows in the electrical grid associated with the one or more locations; determine whether the model is validated by determining whether a predicted production of power minus predicted losses is within a predefined range of a predicted consumption of power at the one or more locations in the electrical grid; and produce, in response to a determination that the model is validated and based on the one or more parameters, the customized forecast of predicted power flows associated with the one or more locations for the defined time period.
Table (10, 20, 30) with a height-adjustable top, comprising a top supported by at least one leg (1a, 1b, 1c) and first adjusting means for adjusting the height of the top, wherein the at least one leg is assembled from an upward inclining elongate telescopic body (1a, 1b, 1c) which is provided on its end directed toward the top with a top support (3, 4) coupled to the top, second adjusting means are provided for moving the top in a horizontal direction, drive means are provided for driving the first and the second adjusting means, and coupling means (8, 9, 11) are provided for coupling the first and the second adjusting means, the first and the second adjusting means and the coupling means (8, 9, 11) are configured such that, during a change in the height of the top by means of the first adjusting means, an associated movement in horizontal direction is compensated by an opposite movement in horizontal direction by means of the second adjusting means, characterized in that the first adjusting means comprise a first linear actuator comprising a first screw spindle which is received in the leg and coupled to the top support (3, 4).
A method for predicting and/or quantifying the response of a subject to prebiotics in the prevention of diet induced weight gain, comprising a) determining a level of indoxyl sulfate in a urine sample obtained from a subject that has consumed prebiotics, and b) comparing the subject's indoxyl sulfate level to a predetermined reference value, wherein a decreased indoxyl sulfate level, or an absence of change in the indoxyl sulfate level, in the urine sample compared to the predetermined reference value indicates that the administration of prebiotics is effective in the prevention of diet induced weight gain in the subject. a) determining a level of indoxyl sulfate in a urine sample obtained from a subject that has consumed prebiotics, and b) comparing the subject's indoxyl sulfate level to a predetermined reference value,
An adjustable supporting stand, characterized by comprising: a main body; a slidable module disposed on the main body; a supporting holder, mounted on the slidable module, wherein the supporting holder slides relatively to the main body; a gear set, wherein the gear set has a first gear connected to the supporting holder and a fourth gear coupled to the first gear, the first gear is assembled on a turning plate; and an elastic member disposed on the main body, wherein the elastic member has opposite first end and second end, the first end is adjustably fixed on the main body, and the second end is connected to the fourth gear; the elastic member and the fourth gear being configured such that when the slidable module is positioned in a first position, the elastic member has a first resilient force, and the second end is located as the same horizontal level with the rotary shaft of the fourth gear, the first resilient force is applied on a first positive force arm; the elastic member and the fourth gear being configured such that when slidable module slides from the first position downwardly and is positioned in a second position, the elastic member has a second resilient force, and the second resilient force is applied on a second positive force arm, the second resilient force is greater than the first resilient force, the second positive force arm is smaller than the first positive force arm. a main body; a slidable module disposed on the main body; a supporting holder, mounted on the slidable module, wherein the supporting holder slides relatively to the main body; a gear set, wherein the gear set has a first gear connected to the supporting holder and a fourth gear coupled to the first gear, the first gear is assembled on a turning plate; and an elastic member disposed on the main body, wherein the elastic member has opposite first end and second end, the first end is adjustably fixed on the main body, and the second end is connected to the fourth gear; the elastic member and the fourth gear being configured such that when the slidable module is positioned in a first position, the elastic member has a first resilient force, and the second end is located as the same horizontal level with the rotary shaft of the fourth gear, the first resilient force is applied on a first positive force arm; the elastic member and the fourth gear being configured such that when slidable module slides from the first position downwardly and is positioned in a second position, the elastic member has a second resilient force, and the second resilient force is applied on a second positive force arm, the second resilient force is greater than the first resilient force, the second positive force arm is smaller than the first positive force arm.
A solar cell comprising: a semiconductor substrate; a tunneling layer formed over a back surface of the semiconductor substrate; an emitter area formed of a semiconductor layer including a single semiconductor material disposed over the tunneling layer, the emitter area being of a first conductive type opposite to a conductive type of the semiconductor substrate; a front surface field area formed of a metal oxide layer and disposed on a front surface of the semiconductor substrate, the front surface field area being of a second conductive type opposite to the first conductive type; a first electrode connected to the emitter area; and a second electrode connected to the front surface field area, wherein the front surface field area has a smaller light absorption coefficient than the emitter area, wherein the metal oxide in the metal oxide layer comprises indium, gallium, and zinc, and wherein, in the front surface field area, the amount of indium is greater than each of the amount of gallium, the amount of zinc, and the amount of oxygen. a semiconductor substrate; a tunneling layer formed over a back surface of the semiconductor substrate; an emitter area formed of a semiconductor layer including a single semiconductor material disposed over the tunneling layer, the emitter area being of a first conductive type opposite to a conductive type of the semiconductor substrate; a front surface field area formed of a metal oxide layer and disposed on a front surface of the semiconductor substrate, the front surface field area being of a second conductive type opposite to the first conductive type; a first electrode connected to the emitter area; and a second electrode connected to the front surface field area, wherein the front surface field area has a smaller light absorption coefficient than the emitter area, wherein the metal oxide in the metal oxide layer comprises indium, gallium, and zinc, and wherein, in the front surface field area, the amount of indium is greater than each of the amount of gallium, the amount of zinc, and the amount of oxygen.
A method for creating a unique ECU-signature for an Electronic Control Unit, ECU, the ECU being integrally operating within a computerized sub-system of a vehicle network comprising a CAN-bus having at least two ECUs, the method comprising the steps of: a) reading and storing into a memory storage a plurality of CAN-bus messages, wherein each of said CAN-bus messages is generated by an ECU of said at least two ECUs; b) based on a non-linearity of the CAN-bus sub-system, determining from at least one pulse of each of said read messages a training-signature, wherein each of said training-signatures comprises a pair of sub-signatures: i) a rising-sub-signature, being an impulse response of a rising section of said at least one pulse of the CAN-bus sub-system, as viewed by said message generating ECU; and ii) a falling-sub-signature, being an impulse response of a falling section of said at least one pulse of the CAN bus sub-system, as viewed by said message generating ECU; and c) for each of said message generating ECUs, determine a unique ECU-signature from said respective training-signatures. a) reading and storing into a memory storage a plurality of CAN-bus messages, wherein each of said CAN-bus messages is generated by an ECU of said at least two ECUs; b) based on a non-linearity of the CAN-bus sub-system, determining from at least one pulse of each of said read messages a training-signature, wherein each of said training-signatures comprises a pair of sub-signatures: i) a rising-sub-signature, being an impulse response of a rising section of said at least one pulse of the CAN-bus sub-system, as viewed by said message generating ECU; and ii) a falling-sub-signature, being an impulse response of a falling section of said at least one pulse of the CAN bus sub-system, as viewed by said message generating ECU; and i) a rising-sub-signature, being an impulse response of a rising section of said at least one pulse of the CAN-bus sub-system, as viewed by said message generating ECU; and ii) a falling-sub-signature, being an impulse response of a falling section of said at least one pulse of the CAN bus sub-system, as viewed by said message generating ECU; and c) for each of said message generating ECUs, determine a unique ECU-signature from said respective training-signatures.