mhurhangee/patent-ind-claim-en huggingface dataset:
An agricultural vehicle with a tyre pressure replenishing unit as well as a control unit for adjusting the tyre pressure of the vehicle as a function of sensor-detected operating parameters of the vehicle, wherein the control unit can be operated in different operating modes which can be selected by an operator wherein, by selecting one of the operating modes, the tyre pressure can be adjusted on the basis of a control strategy associated with that operating mode, characterized in that the vehicle is provided with means for detecting a chassis efficiency and a traction coefficient and the control unit can be operated in at least one operating mode in which the control unit adjusts the tyre pressure with the aim of higher efficiency of the vehicle, or in an operating mode in which the control unit adjusts the tyre pressure with the aim of higher traction of the vehicle .
A signal processing circuit comprising: a CMOS bridge rectifier circuit including: a first input terminal and a second input terminal for receiving a rectangular wave form that includes a data sequence; a first output terminal and a second output terminal for providing a rectified dc output voltage; wherein a first switch is coupled between the first input terminal and a first node, a second switch is coupled between the second input terminal and the first node, the first node is coupled to said first output terminal, a third switch is coupled between the first input terminal and a second node, a fourth switch is coupled between the second input terminal and the second node; the second node is coupled to said second output terminal; wherein the first switch and fourth switch are gated on when the input signal is of a first polarity; and wherein the second switch and the third switch are gated on when the input signal is of a second polarity opposite the first polarity so that the first and second output terminals provide the dc voltage, and characterized by a first data output terminal connected to the second input terminal, and a second data output terminal connected to the second output terminal, wherein the data output terminals provide an output signal representative of the data sequence. a first input terminal and a second input terminal for receiving a rectangular wave form that includes a data sequence; a first output terminal and a second output terminal for providing a rectified dc output voltage; wherein a first switch is coupled between the first input terminal and a first node, a second switch is coupled between the second input terminal and the first node, the first node is coupled to said first output terminal, a third switch is coupled between the first input terminal and a second node, a fourth switch is coupled between the second input terminal and the second node; the second node is coupled to said second output terminal; wherein the first switch and fourth switch are gated on when the input signal is of a first polarity; and wherein the second switch and the third switch are gated on when the input signal is of a second polarity opposite the first polarity so that the first and second output terminals provide the dc voltage, and characterized by a first data output terminal connected to the second input terminal, and a second data output terminal connected to the second output terminal, wherein the data output terminals provide an output signal representative of the data sequence.
A system , comprising: hardware processing circuitry ; and one or more hardware memories storing instructions that when executed configure the hardware processing circuitry to perform operations, comprising: intercepting a sequence of instructions of an executing application; providing the sequence of instructions to a machine learning model ; receiving , from the machine learning model based on the provided sequence of instructions , an indication of a modification to the executing application; and performing the indicated modification , wherein the machine learning model is configured to apply a reinforcement learning algorithm, the machine learning model trained to generate a modification that results in successful execution of the executing application. hardware processing circuitry ; and one or more hardware memories storing instructions that when executed configure the hardware processing circuitry to perform operations, comprising: intercepting a sequence of instructions of an executing application; providing the sequence of instructions to a machine learning model ; receiving , from the machine learning model based on the provided sequence of instructions , an indication of a modification to the executing application; and performing the indicated modification , wherein the machine learning model is configured to apply a reinforcement learning algorithm, the machine learning model trained to generate a modification that results in successful execution of the executing application. intercepting a sequence of instructions of an executing application; providing the sequence of instructions to a machine learning model ; receiving , from the machine learning model based on the provided sequence of instructions , an indication of a modification to the executing application; and performing the indicated modification , wherein the machine learning model is configured to apply a reinforcement learning algorithm, the machine learning model trained to generate a modification that results in successful execution of the executing application.
An array substrate, comprising: a conductive reflecting structure ; a transparent metal oxide layer provided above the conductive reflecting structure ; a transparent electrode formed in a same layer as the transparent metal oxide layer ; and metal particles formed on the transparent metal oxide layer by aggregating metal in the transparent metal oxide layer , characterized in that , the transparent metal oxide layer and the transparent electrode are separated from each other, and the conductive reflecting structure is one or more of a gate line , a data line , and a common electrode line . a conductive reflecting structure ; a transparent metal oxide layer provided above the conductive reflecting structure ; a transparent electrode formed in a same layer as the transparent metal oxide layer ; and metal particles formed on the transparent metal oxide layer by aggregating metal in the transparent metal oxide layer , characterized in that , the transparent metal oxide layer and the transparent electrode are separated from each other, and the conductive reflecting structure is one or more of a gate line , a data line , and a common electrode line .
A compressor arrangement for operating a compressed air supply installation , the compressor arrangement comprising: - an electric motor (300, 300', 300"), which is arranged inside a drive housing , the electric motor having an internal stator and an external outer rotor (340, 340', 340"), wherein the external outer rotor (340, 340', 340") is arranged in a rotatable manner about the internal stator , and - a pneumatic compressor , and wherein - the external outer rotor (340, 340', 340") is supported in a rotatable manner about a center axis (M) with respect to the drive housing via a bearing arrangement (320, 320a-f), the bearing arrangement having at least one bearing (313, 313a-e, 313.1, 313.2), characterized in that - the external outer rotor (340, 340', 340") is supported, in particular exclusively, by the bearing arrangement (320, 320a -f) on an outer circumference of the outer rotor (340, 340', 340"). - an electric motor (300, 300', 300"), which is arranged inside a drive housing , the electric motor having an internal stator and an external outer rotor (340, 340', 340"), wherein the external outer rotor (340, 340', 340") is arranged in a rotatable manner about the internal stator , and - a pneumatic compressor , and wherein - the external outer rotor (340, 340', 340") is supported in a rotatable manner about a center axis (M) with respect to the drive housing via a bearing arrangement (320, 320a-f), the bearing arrangement having at least one bearing (313, 313a-e, 313.1, 313.2), characterized in that - the external outer rotor (340, 340', 340") is supported, in particular exclusively, by the bearing arrangement (320, 320a -f) on an outer circumference of the outer rotor (340, 340', 340").
A valve assembly applied to an ink cartridge , comprising a valve cover , a valve base , a diaphragm and a transfer column , the valve cover is disposed on the valve base to define a valve cavity , and the diaphragm is disposed between the valve cover and the valve base and configured for separating the valve cavity into a first deformable cavity and a second deformable cavity independent with each other, wherein the first deformable cavity is in communication with an air pump, the second deformable cavity is in communication with an ink outlet hole ; the transfer column is fixed in the valve cavity , and the diaphragm is penetrated by the transfer column , and at least one of the transfer column and the diaphragm is provided with a passage ; and the diaphragm is capable of moving along an axis of transfer column relative to the transfer column under a pressure difference between the first deformable cavity and the second deformable cavity , resulting in a communication between the first deformable cavity and the second deformable cavity by the passage is opened, or the communication between the first deformable cavity and the second deformable cavity is closed, wherein at least one of the transfer column and the diaphragm is provided with a passage comprises: the passage is disposed on the transfer column ; or the passage is disposed in the diaphragm ; or one part of the passage is disposed in the diaphragm , and the other part of the passage is disposed on the transfer column . the transfer column is fixed in the valve cavity , and the diaphragm is penetrated by the transfer column , and at least one of the transfer column and the diaphragm is provided with a passage ; and the diaphragm is capable of moving along an axis of transfer column relative to the transfer column under a pressure difference between the first deformable cavity and the second deformable cavity , resulting in a communication between the first deformable cavity and the second deformable cavity by the passage is opened, or the communication between the first deformable cavity and the second deformable cavity is closed, wherein at least one of the transfer column and the diaphragm is provided with a passage comprises: the passage is disposed on the transfer column ; or the passage is disposed in the diaphragm ; or one part of the passage is disposed in the diaphragm , and the other part of the passage is disposed on the transfer column . the passage is disposed on the transfer column ; or the passage is disposed in the diaphragm ; or one part of the passage is disposed in the diaphragm , and the other part of the passage is disposed on the transfer column .
An apparatus comprising a computer readable medium storing instructions for causing a computer system to perform operations comprising: receiving , from a source of patient ECG data that includes two or more ECG leads, an ECG signal; generating at least two generally orthogonal ECG vectors based on the ECG signal; processing the at least two generally orthogonal ECG vectors to determine a loop trajectory of at least a portion of the ECG signal; identifying a trajectory bifurcation by comparing the loop trajectory to a control loop trajectory for a plurality of cardiac cycles; determining beat-to-beat T wave alternans, wherein the control loop trajectory is generated using either odd beats or even beats of a time period and the loop trajectory is generated using the other of the odd beats or the even beats of the time period; and determining an indicator of a cardiac event based on the trajectory bifurcation. receiving , from a source of patient ECG data that includes two or more ECG leads, an ECG signal; generating at least two generally orthogonal ECG vectors based on the ECG signal; processing the at least two generally orthogonal ECG vectors to determine a loop trajectory of at least a portion of the ECG signal; identifying a trajectory bifurcation by comparing the loop trajectory to a control loop trajectory for a plurality of cardiac cycles; determining beat-to-beat T wave alternans, wherein the control loop trajectory is generated using either odd beats or even beats of a time period and the loop trajectory is generated using the other of the odd beats or the even beats of the time period; and determining an indicator of a cardiac event based on the trajectory bifurcation.
A mandrel for producing a hollow composite component of a wind turbine rotor blade, the mandrel comprising: a core of a first material; an outer layer of a second material arranged radially outward of the core , the second material being more compressible than the first material; and characterized by a first intensifier member for intensifying a pressure on a first inner area of a lay-up, the first intensifier member being arranged at least partially radially outward of the core , wherein a first outer surface of the first intensifier member and a second outer surface of the outer layer , together, forms a defined shape corresponding to a desired inner shape of at least a portion of the hollow composite component. a core of a first material; an outer layer of a second material arranged radially outward of the core , the second material being more compressible than the first material; and characterized by a first intensifier member for intensifying a pressure on a first inner area of a lay-up, the first intensifier member being arranged at least partially radially outward of the core , wherein a first outer surface of the first intensifier member and a second outer surface of the outer layer , together, forms a defined shape corresponding to a desired inner shape of at least a portion of the hollow composite component.
A pneumatic material conveying system comprising a waste container/separating device and a press device/compactor device, which press device/compactor device is configured to be connected to the waste container/separating device of the pneumatic material conveying system, which press device/compactor device comprises a frame part , means for detachably connecting the frame part and the waste container/separating device to each other, and also a compression means , which is arranged to be movable with drive means into the frame part between a first position, in which first position the compression means is outside the container space of the waste container/separating device, and at least one second position, in which the compression means extends into the container space via the aperture formed in the waste container/separating device, wherein the press device/compactor device comprises a movable part , along with which the compression means and at least a part of the moving means of the compression means are arranged to be movable, which movable part can be moved between at least one first position, in which the movable part is outside the waste container/separating device , and one second position, in which the movable part extends via the aperture into the container space of the waste container/separating device , and a support surface for at least one wall arranged transverse to the input direction of the material in the container space of the waste container/separating device , which wall is configured to guide the material into the operating range in the container space of the compression means of the press device/compactor device, wherein the at least one wall is arranged to be turnable or bendable at its top part around a transverse axis .
A light engine comprising: an optical waveguide comprising a plurality of body sections (90a-90f) comprising a recess (98a-98f, 162) for receiving at least one LED and a plurality of curved light extraction features surrounding the recess; a mounting structure surrounding the plurality of body sections that maintains the plurality of body sections in assembled relationship; a base mounting surface ; and a plurality of LEDs disposed on a circuit board wherein the circuit board, the mounting structure, and assembled body sections are secured relative to the base mounting surface , characterized in that each body section (90a-90f) is of a wedge shape and further comprises first and second continuously curved outer walls disposed at an outer portion of the optical waveguide and that meet at an inflection portion spaced from another body section. an optical waveguide comprising a plurality of body sections (90a-90f) comprising a recess (98a-98f, 162) for receiving at least one LED and a plurality of curved light extraction features surrounding the recess; a mounting structure surrounding the plurality of body sections that maintains the plurality of body sections in assembled relationship; a base mounting surface ; and a plurality of LEDs disposed on a circuit board wherein the circuit board, the mounting structure, and assembled body sections are secured relative to the base mounting surface , characterized in that each body section (90a-90f) is of a wedge shape and further comprises first and second continuously curved outer walls disposed at an outer portion of the optical waveguide and that meet at an inflection portion spaced from another body section.
An apparatus for controlling a voltage of a direct current terminal of construction machinery equipped with a motor , the apparatus comprising: one or more inverters connected to one or more motors which convert electric energy into mechanical energy or regenerate mechanical energy to electric energy, respectively, and configured to control the one or more motors ; a converter connected to an energy storage apparatus storing regenerative power generated by the one or more motors to control the energy storage apparatus ; a direct current terminal capacitor connected between the one or more inverters and the converter , and configured to receive power through the one or more inverters and collect the regenerated power through the converter ; and a control unit configured to generate one or more inverter demanded voltages demanded by the one or more inverters and a converter demanded voltage demanded by the converter , and configured to variably control a direct current terminal voltage of the direct current terminal capacitor based on the generated one or more inverter demanded voltages and the generated converter demanded voltage, wherein the control unit calculates a maximum demanded voltage among the one or more generated inverter demanded voltages and the converter demanded voltage, and variably controls the direct current terminal voltage of the direct current terminal capacitor according to the calculated maximum demanded voltage, the apparatus charaterised in that the control unit adds a predetermined voltage margin to the calculated maximum demanded voltage, and variably controls the direct current terminal voltage of the direct current terminal capacitor according to the maximum demanded voltage to which the predetermined voltage margin is added. one or more inverters connected to one or more motors which convert electric energy into mechanical energy or regenerate mechanical energy to electric energy, respectively, and configured to control the one or more motors ; a converter connected to an energy storage apparatus storing regenerative power generated by the one or more motors to control the energy storage apparatus ; a direct current terminal capacitor connected between the one or more inverters and the converter , and configured to receive power through the one or more inverters and collect the regenerated power through the converter ; and a control unit configured to generate one or more inverter demanded voltages demanded by the one or more inverters and a converter demanded voltage demanded by the converter , and configured to variably control a direct current terminal voltage of the direct current terminal capacitor based on the generated one or more inverter demanded voltages and the generated converter demanded voltage, wherein the control unit calculates a maximum demanded voltage among the one or more generated inverter demanded voltages and the converter demanded voltage, and variably controls the direct current terminal voltage of the direct current terminal capacitor according to the calculated maximum demanded voltage,
A mobile charging system for extending autonomous operation of an electrically powered self-contained climate controlled storage unit , the mobile charging system comprising: a battery bank for charging the electrically powered self-contained climate controlled storage unit; a plurality of charge modules for charging the battery bank; a system controller connected to the battery bank and connected to each of the plurality of charge modules, wherein the system controller is configured to control operation of the mobile charging system by communicating with the battery bank and each of the plurality of charge modules; and an AC inverter charge module connected to the battery bank and configured to provide electrical energy from the battery bank to the electrically powered self-contained climate controlled storage unit; wherein the AC inverter charge module is configured to connect to a shore power source , receive shore power electrical energy from the shore power source, manage and control the shore power electrical energy into electrical energy compatible for at least one of the battery bank and the electrically powered self-contained climate controlled storage unit, and deliver the electrical energy to at least one of the battery bank and the electrically powered self-contained climate controlled storage unit . a battery bank for charging the electrically powered self-contained climate controlled storage unit; a plurality of charge modules for charging the battery bank; a system controller connected to the battery bank and connected to each of the plurality of charge modules, wherein the system controller is configured to control operation of the mobile charging system by communicating with the battery bank and each of the plurality of charge modules; and an AC inverter charge module connected to the battery bank and configured to provide electrical energy from the battery bank to the electrically powered self-contained climate controlled storage unit; wherein the AC inverter charge module is configured to connect to a shore power source , receive shore power electrical energy from the shore power source, manage and control the shore power electrical energy into electrical energy compatible for at least one of the battery bank and the electrically powered self-contained climate controlled storage unit, and deliver the electrical energy to at least one of the battery bank and the electrically powered self-contained climate controlled storage unit .