mhurhangee/ep-ind-claims huggingface dataset:
A wireless communication module of a vehicle comprising: a magnetic sensor configured to detect magnetic field data; a communication circuit; a controller in communication with the magnetic sensor and the communication circuit, the controller configured to: monitor the magnetic field data; compare a change in the magnetic field data to a first predetermined threshold, the first predetermined threshold corresponding to a change in direction of the vehicle; output an activation signal to the communication circuit in response to a change in the magnetic field data exceeding the first threshold; output a sleep signal configured to cause the wireless communication module to enter a dormant state to the communication circuit in response to the magnetic field data being less than a second predetermined threshold for a predetermined period of time while the wireless communication module is in the active state; and wherein the change in the magnetic field indicates a change in direction of the vehicle measured by the magnetic sensor, and wherein the communication circuit is configured to enter an active state in response to receiving the activation signal and enter the dormant state in response to the sleep signal. a magnetic sensor configured to detect magnetic field data; a communication circuit; a controller in communication with the magnetic sensor and the communication circuit, the controller configured to: monitor the magnetic field data; compare a change in the magnetic field data to a first predetermined threshold, the first predetermined threshold corresponding to a change in direction of the vehicle; output an activation signal to the communication circuit in response to a change in the magnetic field data exceeding the first threshold; output a sleep signal configured to cause the wireless communication module to enter a dormant state to the communication circuit in response to the magnetic field data being less than a second predetermined threshold for a predetermined period of time while the wireless communication module is in the active state; and monitor the magnetic field data; compare a change in the magnetic field data to a first predetermined threshold, the first predetermined threshold corresponding to a change in direction of the vehicle; output an activation signal to the communication circuit in response to a change in the magnetic field data exceeding the first threshold; output a sleep signal configured to cause the wireless communication module to enter a dormant state to the communication circuit in response to the magnetic field data being less than a second predetermined threshold for a predetermined period of time while the wireless communication module is in the active state; and wherein the change in the magnetic field indicates a change in direction of the vehicle measured by the magnetic sensor, and wherein the communication circuit is configured to enter an active state in response to receiving the activation signal and enter the dormant state in response to the sleep signal.
Method for operating a step-up converter power factor correction circuit (PFC boost converter), wherein a charging capacitor is charged through a controlled switch with a discharge current of a free-wheel diode connected in series with the charging coil of the step-up converter power factor correction circuit, wherein the switch is switched on and off through an electronic control and/or regulation unit, characterized in that, the current through the switch is detected directly or indirectly at an input of the electronic control and/or regulation unit in periods during which the switch is closed, and - a further operating parameter of the PFC boost circuit is detected in periods during which the switch is opened, wherein the detected further operating parameter is the zero crossing of the current flowing through the charging coil. wherein decoupling of the detection of the switch current and the detection of the zero crossing of the current flowing through the charge coil is carried out. - a further operating parameter of the PFC boost circuit is detected in periods during which the switch is opened, wherein the detected further operating parameter is the zero crossing of the current flowing through the charging coil.
A wireless communication method, comprising: transmitting, by a terminal device, an assistance information to a network device, the assistance information including at least one parameter information capable of assisting the network device to schedule or configure the terminal device; transmitting, by the terminal device, a first information to the network device, the first information configured for the network device to determine a target parameter information to be deleted, the target parameter information included in the at least one parameter information; and after deletion of the target parameter information, causing the network device to not include the target parameter information in scheduling or configuring the terminal device, characterized in that: the at least one parameter information comprises a plurality of parameter information, the assistance information comprises the first information, the first information indicates a plurality of valid durations each for one of the plurality of parameter information, or is configured for the network device to determine the plurality of valid durations each for one of the plurality of parameter information. transmitting, by a terminal device, an assistance information to a network device, the assistance information including at least one parameter information capable of assisting the network device to schedule or configure the terminal device; transmitting, by the terminal device, a first information to the network device, the first information configured for the network device to determine a target parameter information to be deleted, the target parameter information included in the at least one parameter information; and after deletion of the target parameter information, causing the network device to not include the target parameter information in scheduling or configuring the terminal device, characterized in that: the at least one parameter information comprises a plurality of parameter information, the assistance information comprises the first information, the first information indicates a plurality of valid durations each for one of the plurality of parameter information, or is configured for the network device to determine the plurality of valid durations each for one of the plurality of parameter information.
A compound, having one of the formulas: Saponin R1 R 2 16 (SQS 1-0-5-18) -CHO -OH 19 (SQS 1-11-5-18) -CH 2 OH -OH 20 (SQS 1-8-5-18) -Me -OH 21 (SQS 1-9-5-18) -CHO -H 22 (SQS 1-10-5-18) -CH 2 OH -H 18 (SQS 1-7-5-18) -Me -H
A printing method using an offset printing press including a plurality of conveying rolls for conveying a substrate, a U-shaped guide provided below the conveying rolls along the shape of the conveying rolls a blanket positioned adjacent to the conveying rolls, a waterless plate positioned adjacent to the blanket, an ink conveying roll group positioned adjacent to the waterless plate, and a UV irradiation apparatus for irradiating the printed substrate with UV, the printing method comprising: an offset printing step of transferring UV curable ink applied to the waterless plate to the blanket, and then printing the UV curable ink on the substrate; and a UV irradiating step of irradiating the printed substrate with UV to cure the UV curable ink, wherein the running speed of the substrate is in a range of 250 m/h to 1700 m/h; the film thickness of the applied UV curable ink is in a range of 3 to 7 μm; the ink conveying roll groups is an assembly of inking rolls or anilox rolls; and the ink conveying roll group comprises a temperature-regulating ink conveying roll for regulating the temperature of the UV curable ink by allowing hot water to flow through a core portion of the temperature-regulating ink conveying roll, the UV curable ink is heated so that the temperature of the UV curable ink in use is regulated to a range of 20 °C to 50 °C and the viscosity of the UV curable ink in use is set in a range of 5 Pa·s to 1500 Pa·s, and air is blown to between the conveying roll and the guide so as to prevent the substrate from hanging down. an offset printing step of transferring UV curable ink applied to the waterless plate to the blanket, and then printing the UV curable ink on the substrate; and a UV irradiating step of irradiating the printed substrate with UV to cure the UV curable ink, wherein the running speed of the substrate is in a range of 250 m/h to 1700 m/h; the film thickness of the applied UV curable ink is in a range of 3 to 7 μm; the ink conveying roll groups is an assembly of inking rolls or anilox rolls; and the ink conveying roll group comprises a temperature-regulating ink conveying roll for regulating the temperature of the UV curable ink by allowing hot water to flow through a core portion of the temperature-regulating ink conveying roll, the UV curable ink is heated so that the temperature of the UV curable ink in use is regulated to a range of 20 °C to 50 °C and the viscosity of the UV curable ink in use is set in a range of 5 Pa·s to 1500 Pa·s, and air is blown to between the conveying roll and the guide so as to prevent the substrate from hanging down.
A coaxial two-layered parachute comprising an inflation sac body defining an inner layer and a parachute cover defining an outer layer, wherein the inner layer of the inflation sac body and the outer layer of the parachute cover are coaxially arranged with respect to a coaxial centerline; wherein the inner layer of the inflation sac body is filled with helium and includes a guide portion;wherein the outer layer of parachute cover covers a part of the inner layer of the inflation sac body which is disposed inside the outer layer of parachute cover, wherein the outer layer of parachute cover includes a bottom surface (32, 50) which is located adjacent to the guide portion and connected to the inner layer of the inflation sac body, so that an inflation space is defined between the outer layer of the parachute cover, the bottom surface (32, 50) thereof and the inner layer of the inflation sac body, wherein the bottom surface (32, 50) is provided with plural air inlets (320, 51) which are annularly arranged, and wherein the outer layer of parachute cover has a downward tapered surface.
Pneumatic vehicle tyre comprising a tread, a carcass inlay, a belt assembly with at least two belt plies (2a, 2b) and an electrically conducting belt bandage, which covers the belt plies (2a, 2b) at the edges, as seen in the cross section of the tyre, and with electrically non-conducting sidewalls, which each have a radially outer wall section, which protrudes between the carcass inlay and the radially innermost belt ply, wherein at least one electrically conducting element passes through the tread in the radial direction and is in electrically conducting connection with the belt bandage, and wherein at least one electrically conducting sidewall passage is formed in at least one side wall region and is in electrically conducting connection with the wheel rim when the tyre is fitted on the rim, characterized in that the belt plies (2a, 2b) have electrically non-conducting rubber linings, wherein at least one electrically conducting rubber strip is incorporated in at least one shoulder of the tyre between the radially outer wall section of the sidewall and the radially innermost belt ply and is in connection with the electrically conducting belt bandage and the electrically conducting sidewall passage, wherein an electrically conducting passage, an electrically conducting tyre component and an electrically conducting element mean one which has an electrical resistivity of ≤ 10 8 ohm · cm. wherein at least one electrically conducting element passes through the tread in the radial direction and is in electrically conducting connection with the belt bandage, and wherein at least one electrically conducting sidewall passage is formed in at least one side wall region and is in electrically conducting connection with the wheel rim when the tyre is fitted on the rim, characterized in that the belt plies (2a, 2b) have electrically non-conducting rubber linings, wherein at least one electrically conducting rubber strip is incorporated in at least one shoulder of the tyre between the radially outer wall section of the sidewall and the radially innermost belt ply and is in connection with the electrically conducting belt bandage and the electrically conducting sidewall passage, wherein an electrically conducting passage, an electrically conducting tyre component and an electrically conducting element mean one which has an electrical resistivity of ≤ 10 8 ohm · cm.
An accelerometer comprising: an accelerometer base; a proof mass flexibly connected to the accelerometer base; a double-ended tuning fork (DETF) coupled to the proof mass and the accelerometer base, the DETF comprising: a DETF base attached to the accelerometer base; a piezoelectric outrigger that extends from a first side of the DETF base; and two tines (30, 32) that extend from a side of the outrigger that is opposite the first side of the DETF base; and a drive mechanism (100, 102) configured to cause opposing forces in different halves of the outrigger, thereby causing the tines to oscillate wherein the drive mechanism comprises metalized traces located either only on the sides of the outrigger that extend from the first side of the DETF base (72, 76, 82, 70, 74, 80, 112, 124), or on surfaces adjacent to the sides of the outrigger (122, 124), and a charge applied to the metalized traces is driven at a predefined alternating frequency, thereby causing tines (30, 32) of the DETF to oscillate at a resonant frequency. an accelerometer base; a proof mass flexibly connected to the accelerometer base; a double-ended tuning fork (DETF) coupled to the proof mass and the accelerometer base, the DETF comprising: a DETF base attached to the accelerometer base; a piezoelectric outrigger that extends from a first side of the DETF base; and two tines (30, 32) that extend from a side of the outrigger that is opposite the first side of the DETF base; and a DETF base attached to the accelerometer base; a piezoelectric outrigger that extends from a first side of the DETF base; and two tines (30, 32) that extend from a side of the outrigger that is opposite the first side of the DETF base; and a drive mechanism (100, 102) configured to cause opposing forces in different halves of the outrigger, thereby causing the tines to oscillate wherein the drive mechanism comprises metalized traces located either only on the sides of the outrigger that extend from the first side of the DETF base (72, 76, 82, 70, 74, 80, 112, 124), or on surfaces adjacent to the sides of the outrigger (122, 124), and a charge applied to the metalized traces is driven at a predefined alternating frequency, thereby causing tines (30, 32) of the DETF to oscillate at a resonant frequency.
Tablet press, comprising a shaft and a punch head, wherein the punch head has a circumferential surface, a central mirror surface on the side of the circumferential surface facing away from the shaft, and a retraction surface on the side of the circumferential surface facing the shaft, wherein the punch head has a head basic body and, separately therefrom, a central pressure absorption element, wherein the head basic body is connected non-rotatably and in particular integrally to the shaft, wherein the circumferential surface and the retraction surface are formed on the head basic body, and wherein the central mirror surface is formed on the pressure absorption element, characterized in that the pressure absorption element is mounted rotatably in the head basic body, in that, for the rotatable mounting of the pressure absorption element in the head basic body, the tablet press has an axial pressure bearing and, separately therefrom, a drop-out guard, in that, in order to form the drop-out guard, a retaining magnet is arranged between the head basic body and the pressure absorption element, and in that a receiving space with a base is formed in the head basic body, wherein the retaining magnet rests flat on the base of the receiving space, and wherein a gap remains between the retaining magnet and the pressure absorption element.
An oxygen box assembly for an aircraft comprising: an oxygen box having an interior volume and a back wall and a front opening on opposite sides of the interior volume, the back wall having holes through the back wall, the oxygen box being configured to be inserted through an oxygen box hole through a panel of an aircraft cabin; an exterior bracket that is configured to be attached to a support structure of an aircraft behind the panel of the aircraft cabin, the exterior bracket having fastener openings that are each configured to receive and hold a fastener, the fastener openings of the exterior bracket aligning with the holes through the back wall of the oxygen box with the oxygen box inserted through the oxygen box hole through the panel of the aircraft cabin; at least one oxygen mask in the interior volume of the oxygen box; and, fasteners inserted through the interior volume of the oxygen box, through the holes, through the back wall of the oxygen box and into the fastener openings of the exterior bracket, the fasteners securing the back wall of the oxygen box and the exterior bracket together and thereby securing the oxygen box in the oxygen box hole through the panel of the aircraft cabin. an oxygen box having an interior volume and a back wall and a front opening on opposite sides of the interior volume, the back wall having holes through the back wall, the oxygen box being configured to be inserted through an oxygen box hole through a panel of an aircraft cabin; an exterior bracket that is configured to be attached to a support structure of an aircraft behind the panel of the aircraft cabin, the exterior bracket having fastener openings that are each configured to receive and hold a fastener, the fastener openings of the exterior bracket aligning with the holes through the back wall of the oxygen box with the oxygen box inserted through the oxygen box hole through the panel of the aircraft cabin; at least one oxygen mask in the interior volume of the oxygen box; and, fasteners inserted through the interior volume of the oxygen box, through the holes, through the back wall of the oxygen box and into the fastener openings of the exterior bracket, the fasteners securing the back wall of the oxygen box and the exterior bracket together and thereby securing the oxygen box in the oxygen box hole through the panel of the aircraft cabin.
Assembly comprising a mechanical connector and a narrow channel connected to the connector, for a windscreen wiper of a vehicle window, in particular a motor vehicle window, the connector comprises an orifice traversed by an end part of the narrow channel, said end part being configured so as to be engaged in an orifice of a longitudinal body of said wiper, for the purpose of supplying fluid to a cavity of said body, the connector comprising means for fixing to the longitudinal body of a wiper blade of the wiper or to the longitudinal body of a support member of a wiper blade of the wiper, said means for fixing comprising two lower lateral walls which are substantially parallel and connected together by an upper wall in which said orifice is formed, the connector comprising two upper lateral tabs which are substantially parallel and extend from the upper wall, on the side opposing the lateral walls, said orifice being located between the two upper lateral tabs such that the narrow channel is located between the two upper lateral tabs, the upper lateral tabs comprising housings for receiving, preferably by resilient clipping, a substantially cylindrical pin forming a pivot connection, characterized in that the substantially cylindrical pin is formed in one piece with the narrow channel.
A metal cutting drill insert for a drill tool, comprising: opposing top surface and bottom surface with a symmetry axis of the cutting drill insert extending there between, and a peripheral side surface extends between said top surface and said bottom surface, wherein the top surface comprises a rake face and the side surface comprises a clearance face; at least one cutting edge is formed at an intersection of the rake face of the top surface and an adjoining clearance face of the side surface, at least one chip breaker is formed in the rake face adjacent to and along the cutting edge; characterized in that the at least one chip breaker comprises: a first chip groove with a constant width and constant depth relative the cutting edge; a second chip groove with an increasing width, and a constant depth relative the cutting edge; a transitional chip groove which connects the first chip groove to the second chip groove; wherein the second groove in a first end adjacent to the transitional groove has a first width w21 and in a second end has a second width w22, wherein the second width w22 is larger than the first width w21. opposing top surface and bottom surface with a symmetry axis of the cutting drill insert extending there between, and a peripheral side surface extends between said top surface and said bottom surface, wherein the top surface comprises a rake face and the side surface comprises a clearance face; at least one cutting edge is formed at an intersection of the rake face of the top surface and an adjoining clearance face of the side surface, at least one chip breaker is formed in the rake face adjacent to and along the cutting edge; characterized in that the at least one chip breaker comprises: a first chip groove with a constant width and constant depth relative the cutting edge; a second chip groove with an increasing width, and a constant depth relative the cutting edge; a transitional chip groove which connects the first chip groove to the second chip groove; wherein the second groove in a first end adjacent to the transitional groove has a first width w21 and in a second end has a second width w22, wherein the second width w22 is larger than the first width w21. a first chip groove with a constant width and constant depth relative the cutting edge; a second chip groove with an increasing width, and a constant depth relative the cutting edge; a transitional chip groove which connects the first chip groove to the second chip groove; wherein the second groove in a first end adjacent to the transitional groove has a first width w21 and in a second end has a second width w22, wherein the second width w22 is larger than the first width w21.