mhurhangee/ep-ind-claims huggingface dataset:
A battery unit arrangement structure for a vehicle, comprising: a dash panel vertical wall portion configured to separate a vehicle interior from an engine compartment; a floor panel configured to form a floor surface of the vehicle interior; a curved corner portion configured to connect a lower end of the dash panel vertical wall portion and a front end of the floor panel to each other; a battery unit, wherein the battery unit is mounted on the corner portion in front of a passenger seat with an upper surface of the battery unit inclined downward toward a vehicle rear so that a rear end of the battery unit is lower than a front end of the battery unit; and a cover member, wherein the battery unit is covered, from above, with the cover member, and the cover member is inclined downward toward the vehicle rear so that a rear end of the cover member is lower than a front end of the cover member, characterized in that the battery unit includes a mounting bracket fixed to the corner portion, a battery placed on the mounting bracket, and a battery clamp that passes over the battery and is fastened to a fastening portion of the mounting bracket, the fastening portion extending to an outer side from the battery, wherein the mounting bracket has a cover member fixing portion configured to fix an edge of the cover member, and wherein the cover member fixing portion is disposed adjacent to a fixing portion through which the mounting bracket is fixed to the corner portion. a dash panel vertical wall portion configured to separate a vehicle interior from an engine compartment; a floor panel configured to form a floor surface of the vehicle interior; a curved corner portion configured to connect a lower end of the dash panel vertical wall portion and a front end of the floor panel to each other; a battery unit, wherein the battery unit is mounted on the corner portion in front of a passenger seat with an upper surface of the battery unit inclined downward toward a vehicle rear so that a rear end of the battery unit is lower than a front end of the battery unit; and a cover member, wherein the battery unit is covered, from above, with the cover member, and the cover member is inclined downward toward the vehicle rear so that a rear end of the cover member is lower than a front end of the cover member, characterized in that the battery unit includes a mounting bracket fixed to the corner portion, a battery placed on the mounting bracket, and a battery clamp that passes over the battery and is fastened to a fastening portion of the mounting bracket, the fastening portion extending to an outer side from the battery, wherein the mounting bracket has a cover member fixing portion configured to fix an edge of the cover member, and wherein the cover member fixing portion is disposed adjacent to a fixing portion through which the mounting bracket is fixed to the corner portion.
An amplifier comprising: an amplifying element that amplifies an input signal in a frequency band an output terminal that outputs the signal amplified by the amplifying element; a matching circuit disposed in series between the amplifying element and the output terminal, and performing impedance matching; and a compensating circuit that includes: an impedance converter disposed in series between the amplifying element and the matching circuit, and a first fundamental wave resonator and a second fundamental wave resonator connected at the ends of the impedance converter, wherein the compensating circuit equalizes impedance in the matching circuit for the frequency band of the signal by setting the resonance frequency of one of the first fundamental wave resonator and the second fundamental wave resonator to be at the lower-edge frequency of the frequency band and by setting the resonance frequency of the other one of the first fundamental wave resonator and the second fundamental wave resonator to be at the upper-edge frequency of the frequency band an amplifying element that amplifies an input signal in a frequency band an output terminal that outputs the signal amplified by the amplifying element; a matching circuit disposed in series between the amplifying element and the output terminal, and performing impedance matching; and a compensating circuit that includes: an impedance converter disposed in series between the amplifying element and the matching circuit, and a first fundamental wave resonator and a second fundamental wave resonator connected at the ends of the impedance converter, wherein an impedance converter disposed in series between the amplifying element and the matching circuit, and a first fundamental wave resonator and a second fundamental wave resonator connected at the ends of the impedance converter, wherein the compensating circuit equalizes impedance in the matching circuit for the frequency band of the signal by setting the resonance frequency of one of the first fundamental wave resonator and the second fundamental wave resonator to be at the lower-edge frequency of the frequency band and by setting the resonance frequency of the other one of the first fundamental wave resonator and the second fundamental wave resonator to be at the upper-edge frequency of the frequency band
A camera module, comprising: a fixed bracket; a camera body comprising a lens and an imaging sensor corresponding to the lens in terms of positions, the camera body being further provided with a movable connecting member on an external side surface of the camera body arranged along a circumferential direction of the lens, the fixed bracket being provided with a movable fitting member corresponding to the movable connecting member in terms of positions, the movable fitting member being movably connected with the movable connecting member; and an anti-shake assembly comprising a space attitude sensor and a driving module electrically connected with the space attitude sensor, the driving module is configured to be fitted with the camera body and to drive the camera body to perform an anti-shake motion relative to the fixed bracket according to shaking information obtained by the space attitude sensor, characterized in that a plurality of movable connecting members are provided, the fixed bracket comprises independent bracket parts arranged at intervals, and an arrangement position of the bracket part corresponds to a position of at least one of the plurality of movable connecting members. a fixed bracket; a camera body comprising a lens and an imaging sensor corresponding to the lens in terms of positions, the camera body being further provided with a movable connecting member on an external side surface of the camera body arranged along a circumferential direction of the lens, the fixed bracket being provided with a movable fitting member corresponding to the movable connecting member in terms of positions, the movable fitting member being movably connected with the movable connecting member; and an anti-shake assembly comprising a space attitude sensor and a driving module electrically connected with the space attitude sensor, the driving module is configured to be fitted with the camera body and to drive the camera body to perform an anti-shake motion relative to the fixed bracket according to shaking information obtained by the space attitude sensor, characterized in that a plurality of movable connecting members are provided, the fixed bracket comprises independent bracket parts arranged at intervals, and an arrangement position of the bracket part corresponds to a position of at least one of the plurality of movable connecting members.
Field device, in particular from the field of process measuring technology, with a sensor unit and an electronic unit that is arranged at least in part in a housing, comprising a protective device for at least one component of a detachable plug-type connection between a connector and a socket, wherein the socket is arranged at least in part on or in the housing of the electronic unit of the field device, characterized in that the protective device encompasses: at least one first and one second half shell, wherein the second half shell is at least partially complementary to the first half shell, wherein the two half shells (11a, 11b) are produced in such a way that they define an internal volume when connected to one another and encapsulate the connector at least in part, at least one first feedthrough for feeding through the connector or both the connector and a cable that is attached to the connector into the internal volume of the protective device, wherein the first feedthrough is at least part of one of the two half shells (11a, 11b), and at least one connection unit for establishing a detachable connection of the two half shells (11a, 11b) with one another, and that the protective device encompasses at least one fixing unit for producing a releasable frictional and/or positive-locking attachment of the protective device on the housing, wherein the fixing unit is part of at least one of the two half shells (11a,11b), and the fixing unit complements the housing at least in part in the area of the socket and is constructed in such a way that the protective device can be plugged onto a section of the housing of the electronic unit of the field device or otherwise attached to a section of the housing of the electronic unit of the field device. at least one first and one second half shell, wherein the second half shell is at least partially complementary to the first half shell, wherein the two half shells (11a, 11b) are produced in such a way that they define an internal volume when connected to one another and encapsulate the connector at least in part, at least one first feedthrough for feeding through the connector or both the connector and a cable that is attached to the connector into the internal volume of the protective device, wherein the first feedthrough is at least part of one of the two half shells (11a, 11b), and at least one connection unit for establishing a detachable connection of the two half shells (11a, 11b) with one another, and that the protective device encompasses at least one fixing unit for producing a releasable frictional and/or positive-locking attachment of the protective device on the housing, wherein the fixing unit is part of at least one of the two half shells (11a,11b), and the fixing unit complements the housing at least in part in the area of the socket and is constructed in such a way that the protective device can be plugged onto a section of the housing of the electronic unit of the field device or otherwise attached to a section of the housing of the electronic unit of the field device.
A control arrangement for a switch mode power supply operable in a burst mode (320; 620) and comprising an opto-coupler configured to transfer, from a secondary side to a primary side of the switch mode power supply by means of an LED current, a control signal indicative of a time-varying error (Ve) between a reference signal (Vref) and a signal (ref) indicative of an actual value of an output parameter (Vout), the control arrangement comprising: an error amplifier configured to operate as a proportional-integrating error amplifier to determine the LED current (ILED) from the time-varying error (Ve); and a feedback loop (Vcompens, V3, Vref) configured to reduce the magnitude of the LED current (ILED) between bursts by modifying the time-varying error (Ve) by adding a time-dependant offset (Vcompens) to the reference signal (Vref). an error amplifier configured to operate as a proportional-integrating error amplifier to determine the LED current (ILED) from the time-varying error (Ve); and a feedback loop (Vcompens, V3, Vref) configured to reduce the magnitude of the LED current (ILED) between bursts by modifying the time-varying error (Ve) by adding a time-dependant offset (Vcompens) to the reference signal (Vref).
A pellicle suitable for use with a patterning device for a lithographic apparatus, the pellicle comprising at least one breakage region which is configured to preferentially break, during normal use in a lithographic apparatus, prior to breakage of remaining regions of the pellicle.
A temperature control apparatus for an industrial heating apparatus comprising: a chamber accommodating a heating target; a heater inputting thermal energy to heat an interior of the chamber; a control temperature sensor measuring the temperature of the chamber interior; and a controller controlling the heater to adjust the input amount of energy according to the temperature of the chamber interior detected by the control temperature sensor and to increase the temperature of the interior of the chamber to a set value, and detecting a variation of the thermal energy or a variation of a thermal energy regulating signal, determining a temperature equalization time point on the basis of the variation of the thermal energy or the variation of the thermal energy regulating signal, and adjusting a soak time, characterized in that the controller controls the input thermal energy by detecting the temperature of the chamber interior, and when there is temperature tolerance between the center and the periphery of the chamber, the controller detects an arrival time point at which a temperature at the center which is a portion to which heat is transferred the most late reaches a minimum allowable temperature limit having a temperature difference to the set value, determines the temperature equalization time point with respect to a variation of input thermal energy per unit time at the arrival time point, and corrects the soak time. a chamber accommodating a heating target; a heater inputting thermal energy to heat an interior of the chamber; a control temperature sensor measuring the temperature of the chamber interior; and a controller controlling the heater to adjust the input amount of energy according to the temperature of the chamber interior detected by the control temperature sensor and to increase the temperature of the interior of the chamber to a set value, and detecting a variation of the thermal energy or a variation of a thermal energy regulating signal, determining a temperature equalization time point on the basis of the variation of the thermal energy or the variation of the thermal energy regulating signal, and adjusting a soak time, characterized in that the controller controls the input thermal energy by detecting the temperature of the chamber interior, and when there is temperature tolerance between the center and the periphery of the chamber, the controller detects an arrival time point at which a temperature at the center which is a portion to which heat is transferred the most late reaches a minimum allowable temperature limit having a temperature difference to the set value, determines the temperature equalization time point with respect to a variation of input thermal energy per unit time at the arrival time point, and corrects the soak time.
A method for the production of an axle beam, in particular of an axle bridge, for a motor vehicle, preferably a utility vehicle, the axle beam comprising: - a first axle beam shell; - a second axle beam shell which is connected, in particular welded, to the first axle beam shell in order to configure a tubular body, the tubular body having an inner circumferential face with a plurality of flat sections which form a non-round cross section of the tubular body; and - a reinforcement component which has a non-round cross section, is inserted within the tubular body, and bears at least partially against the flat sections of the inner circumferential face of the tubular body, the method comprising: - inserting of the reinforcement component into the first axle beam shell; - pressing together and joining of the first axle beam shell and the second axle beam shell, a positively locking connection being brought about between the reinforcement component and the first axle beam shell and/or the second axle beam shell, characterized in that: - during the pressing together, the reinforcement component is deformed substantially only at the transitions between the flat sections of the reinforcement component with retention of a flat contact between the flat sections of the reinforcement component and the flat sections of the inner circumferential face of the tubular body. - a first axle beam shell; - a second axle beam shell which is connected, in particular welded, to the first axle beam shell in order to configure a tubular body, the tubular body having an inner circumferential face with a plurality of flat sections which form a non-round cross section of the tubular body; and - a reinforcement component which has a non-round cross section, is inserted within the tubular body, and bears at least partially against the flat sections of the inner circumferential face of the tubular body, - inserting of the reinforcement component into the first axle beam shell; - pressing together and joining of the first axle beam shell and the second axle beam shell, a positively locking connection being brought about between the reinforcement component and the first axle beam shell and/or the second axle beam shell, - during the pressing together, the reinforcement component is deformed substantially only at the transitions between the flat sections of the reinforcement component with retention of a flat contact between the flat sections of the reinforcement component and the flat sections of the inner circumferential face of the tubular body.
An aircraft incorporating main engines and a power unit adapted for generating electric, pneumatic and/or hydraulic power for the aircraft, wherein the power unit comprises: a heat engine having at least one drive shaft and an exhaust for evacuating combustion gases out of the heat engine, a Rankine cycle system for recovering thermal energy from a heat source of the power unit, as mechanical energy for the assistance of the heat engine, and wherein the Rankine cycle system comprises: an expander mechanically coupled with the drive shaft, a first Ram-air intake and a condenser thermally coupled with the Ram-air intake to cool down a Rankine system fluid, and a heat exchanger thermally coupled with the heat source for transferring heat to the Rankine system fluid, characterized in that the power unit further comprises: at least one load compressor mechanically coupled with the drive shaft to provide a flow of compressed air, and a Ram-air intake in fluid communication with the load compressor to feed Ram air to the load compressor, wherein the output of the load compressor is fluidly communicated with a pneumatic system of the aircraft, to supply pressurized air to that system, and wherein the heat exchanger of the Rankine cycle system is thermally coupled with the output of the load compressor, so that the pressurized air provided by the load compressor is used as heat source for the Rankine cycle system. a heat engine having at least one drive shaft and an exhaust for evacuating combustion gases out of the heat engine, a Rankine cycle system for recovering thermal energy from a heat source of the power unit, as mechanical energy for the assistance of the heat engine, and wherein the Rankine cycle system comprises: an expander mechanically coupled with the drive shaft, a first Ram-air intake and a condenser thermally coupled with the Ram-air intake to cool down a Rankine system fluid, and a heat exchanger thermally coupled with the heat source for transferring heat to the Rankine system fluid, at least one load compressor mechanically coupled with the drive shaft to provide a flow of compressed air, and a Ram-air intake in fluid communication with the load compressor to feed Ram air to the load compressor,
A touch input device capable of detecting a touch pressure, the touch input device comprising: a display panel configured to bend upon touch pressure; and a pressure sensing unit which is disposed under the display panel, wherein the pressure sensing unit comprises one central pressure sensor for detecting the pressure based on a change of capacitance in response to bending of the display panel and a plurality of non-central pressure sensors for detecting the pressure based on a change of capacitance in response to bending of the display panel, wherein the central pressure sensor and the plurality of non-central pressure sensors form a plurality of channels configured to be connected to a pressure sensor controller, characterized in that an area of each of the non-central pressure sensors is less than that of the central pressure sensor. a display panel configured to bend upon touch pressure; and a pressure sensing unit which is disposed under the display panel, wherein the pressure sensing unit comprises one central pressure sensor for detecting the pressure based on a change of capacitance in response to bending of the display panel and a plurality of non-central pressure sensors for detecting the pressure based on a change of capacitance in response to bending of the display panel, wherein the central pressure sensor and the plurality of non-central pressure sensors form a plurality of channels configured to be connected to a pressure sensor controller, characterized in that an area of each of the non-central pressure sensors is less than that of the central pressure sensor. wherein the pressure sensing unit comprises one central pressure sensor for detecting the pressure based on a change of capacitance in response to bending of the display panel and a plurality of non-central pressure sensors for detecting the pressure based on a change of capacitance in response to bending of the display panel, wherein the central pressure sensor and the plurality of non-central pressure sensors form a plurality of channels configured to be connected to a pressure sensor controller, characterized in that an area of each of the non-central pressure sensors is less than that of the central pressure sensor.
A method of handling data packets ciphered by a source base station before a handover in a wireless communication system, the method is performed in a packet data convergence protocol, hereinafter called PDCP layer of a user equipment, wherein the method comprising: receiving in an unacknowledged mode out-of-sequence data packets stored in the RLC-layer of the user equipment upon a handover procedure characterized by the steps: using security variables corresponding to the source base station to decipher the out-of-sequence data packets; and resetting the security variables after finishing deciphering all the out-of-sequence data packets stored in the RLC-layer; wherein the security variables comprise a next expected PDCP receiver sequence number, known as Next_PDCP_RX_SN, and a receiver hyper frame number, known as RX_HFN. receiving in an unacknowledged mode out-of-sequence data packets stored in the RLC-layer of the user equipment upon a handover procedure characterized by the steps: using security variables corresponding to the source base station to decipher the out-of-sequence data packets; and resetting the security variables after finishing deciphering all the out-of-sequence data packets stored in the RLC-layer; wherein the security variables comprise a next expected PDCP receiver sequence number, known as Next_PDCP_RX_SN, and a receiver hyper frame number, known as RX_HFN. using security variables corresponding to the source base station to decipher the out-of-sequence data packets; and resetting the security variables after finishing deciphering all the out-of-sequence data packets stored in the RLC-layer; wherein the security variables comprise a next expected PDCP receiver sequence number, known as Next_PDCP_RX_SN, and a receiver hyper frame number, known as RX_HFN.