mhurhangee/ep-ind-claims huggingface dataset:
Procedure for releasing brakes of a motor vehicle equipped with a hill start assistance device, this method comprising a step in which: b) the assistance device releases the brakes gradually if no vehicle start command occurs after a manual hold of the brakes of the vehicle has ended in a position of immobilization of this vehicle when stopped, at least in the step b), the assistance device performs a specific action in case of detection of a movement of the vehicle in the anteroposterior direction of this vehicle, characterized in that this action is a stopping of the releasing of the brakes during a time delay of predetermined duration. b) the assistance device releases the brakes gradually if no vehicle start command occurs after a manual hold of the brakes of the vehicle has ended in a position of immobilization of this vehicle when stopped,
An erasable memory device, comprising: a memory block, comprising a plurality of memory strings connected to a source line and a plurality of bit lines; and a peripheral circuit, comprising: a discharge circuit (302, 504) configured to discharge the memory block after an erase operation, the discharge circuit (302, 504) comprising: a plurality of discharge transistors, wherein each of the plurality of discharge transistors is configured to connect the source line to a corresponding bit line; a source line detect circuit connected to the source line and comparing an electrical potential (V SL, V GT) of the source line with a predetermined value; and a gate discharge circuit maintaining a constant voltage difference (Vg_Vs) between gate terminals (DS_GT) of the plurality of discharge transistors and the source line, wherein the plurality of discharge transistors are switched on during the erase operation such that the plurality of bit lines are connected to the source line. a memory block, comprising a plurality of memory strings connected to a source line and a plurality of bit lines; and a peripheral circuit, comprising: a discharge circuit (302, 504) configured to discharge the memory block after an erase operation, the discharge circuit (302, 504) comprising: a plurality of discharge transistors, wherein each of the plurality of discharge transistors is configured to connect the source line to a corresponding bit line; a source line detect circuit connected to the source line and comparing an electrical potential (V SL, V GT) of the source line with a predetermined value; and a discharge circuit (302, 504) configured to discharge the memory block after an erase operation, the discharge circuit (302, 504) comprising: a plurality of discharge transistors, wherein each of the plurality of discharge transistors is configured to connect the source line to a corresponding bit line; a source line detect circuit connected to the source line and comparing an electrical potential (V SL, V GT) of the source line with a a plurality of discharge transistors, wherein each of the plurality of discharge transistors is configured to connect the source line to a corresponding bit line; a source line detect circuit connected to the source line and comparing an electrical potential (V SL, V GT) of the source line with a predetermined value; and a gate discharge circuit maintaining a constant voltage difference (Vg_Vs) between gate terminals (DS_GT) of the plurality of discharge transistors and the source line, wherein the plurality of discharge transistors are switched on during the erase operation such that the plurality of bit lines are connected to the source line.
Method for securely providing a cryptographic network key for wireless data transfer between network devices (G 1 to G 3) organized in a network, one of these network devices (G 1 to G 3) being designed as network server for the purpose of this method and designed for providing this network key for communication among the network devices (G 1 to G 3), wherein the communication between the network server and the other network devices (G 1 to G 3) is encrypted by symmetrical encryption, wherein in a first step the network server receives an identification information (SN 1 to SN 3) from each network device (G 1 to G 3), characterized by the fact that in a further step the network server, via a secure connection, retrieves the cryptographic key (MK 1 to MK 3) assigned to this network device (G 1 to G 3) from a central server by means of an identification information (SN 1 to SN 3), stores it securely assigning it to the identification information (SN 1 to SN 3) of the respective network device (G 1 to G 3), then sends the network key to the respective network device (G 1 to G 3) by wireless transmission using symmetrical encryption, wherein the cryptographic key (MK 1 to MK 3) of each network device (G 1 to G 3) is stored in a data record together with the identification information (SN1 to SN3) of that network device (G1 to G3) in connection with the process of imprinting the cryptographic key into each network device (G1 to G3), and this data record is transferred to the central server.
Valve for the venting and/or pressure limitation of a device having an inner pressure (p1, p2), specifically of a crankcase for a motor vehicle, having a displaceable valve element, having a valve body, and having a device which has a valve-element-side part (4.1) and a valve-body-side part (4.2) and which serves for producing a magnetic closing force in order to keep the valve element in a closed position, wherein the valve has a loading component which acts in an elastic manner and/or is formed as a spring element and which serves for acting on the valve-element-side part (4.1) and thus the valve element in the direction of the closed position, characterized in that, in the closed position of the valve element, the loading component exerts no closing force on the valve element.
A split ring seal comprising: a first circumferential end and a second circumferential end; an inner diameter surface and an outer diameter surface; a first axial end face and a second axial end face; a circumferentially distributed first plurality of open channels (74; 76) along the first axial end face; and a circumferentially distributed second plurality of open channels (74; 76) along the second axial end face, wherein the first circumferential end and the second circumferential end form a joint, characterised in that: of the first plurality of open channels (74; 76), two channels closest to diametrically opposite the joint are the largest in cross-sectional area; and of the second plurality of open channels (74; 76), two channels closest to diametrically opposite the joint are the largest in cross-sectional area. a first circumferential end and a second circumferential end; an inner diameter surface and an outer diameter surface; a first axial end face and a second axial end face; a circumferentially distributed first plurality of open channels (74; 76) along the first axial end face; and a circumferentially distributed second plurality of open channels (74; 76) along the second axial end face, wherein the first circumferential end and the second circumferential end form a joint, characterised in that: of the first plurality of open channels (74; 76), two channels closest to diametrically opposite the joint are the largest in cross-sectional area; and of the second plurality of open channels (74; 76), two channels closest to diametrically opposite the joint are the largest in cross-sectional area. diametrically opposite the joint are the largest in cross-sectional area; and of the second plurality of open channels (74; 76), two channels closest to diametrically opposite the joint are the largest in cross-sectional area.
A wireless device comprising: a processor; and a memory, including instructions, which when performed by the processor causes the device to at least: receive a first plurality of channels used for a first wireless connection with a second device; select a second plurality of channels for a second wireless connection with a third device based upon the received first plurality of channels and responsive to receipt of the first plurality of channels, the second plurality of channels including at least one of the first plurality of channels, the second wireless connection occurring during at least a portion of the first wireless connection; send an identification of the second plurality of channels to the third device; and communicate with the third device over the second wireless connection using the second plurality of channels. a processor; and a memory, including instructions, which when performed by the processor causes the device to at least: receive a first plurality of channels used for a first wireless connection with a second device; select a second plurality of channels for a second wireless connection with a third device based upon the received first plurality of channels and responsive to receipt of the first plurality of channels, the second plurality of channels including at least one of the first plurality of channels, the second wireless connection occurring during at least a portion of the first wireless connection; send an identification of the second plurality of channels to the third device; and communicate with the third device over the second wireless connection using the second plurality of channels. receive a first plurality of channels used for a first wireless connection with a second device; select a second plurality of channels for a second wireless connection with a third device based upon the received first plurality of channels and responsive to receipt of the first plurality of channels, the second plurality of channels including at least one of the first plurality of channels, the second wireless connection occurring during at least a portion of the first wireless connection; send an identification of the second plurality of channels to the third device; and communicate with the third device over the second wireless connection using the second plurality of channels.
Device for the detection of an ultra wide band signal, comprising: - A signal reception circuit, - A signal divider circuit to divide the received signal into several frequency sub-bands, - A circuit to determine the amplitude and duration of the signal received in each frequency sub-band, - A circuit to compare the amplitude of the signal received in each frequency sub-band with an amplitude threshold, - A circuit to compare the duration of the signal received in each frequency sub-band with a time threshold, and - A decision circuit that determines that the received signal is of the ultra wide band type if the amplitude of the signal received in each frequency sub-band is higher than the amplitude threshold and if the duration of the signal received in each frequency sub-band is less than the time threshold. - A signal reception circuit, - A signal divider circuit to divide the received signal into several frequency sub-bands, - A circuit to determine the amplitude and duration of the signal received in each frequency sub-band, - A circuit to compare the amplitude of the signal received in each frequency sub-band with an amplitude threshold, - A circuit to compare the duration of the signal received in each frequency sub-band with a time threshold, and - A decision circuit that determines that the received signal is of the ultra wide band type if the amplitude of the signal received in each frequency sub-band is higher than the amplitude threshold and if the duration of the signal received in each frequency sub-band is less than the time threshold.
A device comprising: a radio configured to communicate on a plurality of talkgroups; a physical knob; a touchscreen display; and a controller configured to: render, at the touchscreen display, an item associated with a first talkgroup, of the plurality of talkgroups, the item rendered, at the touchscreen display, in a first view representing the first talkgroup; receive, at the touchscreen display, hold touch input at the item; while continuing to receive the hold touch input at the item, receive, via rotation of the physical knob, a selection of a second talkgroup, of the plurality of talkgroups; when the selection of the second talkgroup is received, control the touchscreen display to replace the first view, representing the first talkgroup, to a second view, representing the second talkgroup, the item remaining stationary at the touchscreen display as the second view of the second talkgroup moves on to the touchscreen display; after the second talkgroup is selected, determine that the hold touch input at the item has ended; and, in response, share, using the radio, the item in the second talkgroup. a radio configured to communicate on a plurality of talkgroups; a physical knob; a touchscreen display; and a controller configured to: render, at the touchscreen display, an item associated with a first talkgroup, of the plurality of talkgroups, the item rendered, at the touchscreen display, in a first view representing the first talkgroup; receive, at the touchscreen display, hold touch input at the item; while continuing to receive the hold touch input at the item, receive, via rotation of the physical knob, a selection of a second talkgroup, of the plurality of talkgroups; when the selection of the second talkgroup is received, control the touchscreen display to replace the first view, representing the first talkgroup, to a second view, representing the second talkgroup, the item remaining stationary at the touchscreen display as the second view of the second talkgroup moves on to the touchscreen display; after the second talkgroup is selected, determine that the hold touch input at the item has ended; and, in response, share, using the radio, the item in the second talkgroup. render, at the touchscreen display, an item associated with a first talkgroup, of the plurality of talkgroups, the item rendered, at the touchscreen display, in a first view representing the first talkgroup; receive, at the touchscreen display, hold touch input at the item; while continuing to receive the hold touch input at the item, receive, via rotation of the physical knob, a selection of a second talkgroup, of the plurality of talkgroups; when the selection of the second talkgroup is received, control the touchscreen display to replace the first view, representing the first talkgroup, to a second view, representing the second talkgroup, the item remaining stationary at the touchscreen display as the second view of the second talkgroup moves on to the touchscreen display; after the second talkgroup is selected, determine that the hold touch input at the item has ended; and, in response, share, using the radio, the item in the second talkgroup.
A dual-stroke safety switch of a washing machine, comprising a control rod, a base and a control switch, the control switch being mounted in the base, and the control rod being movably connected to the base, wherein a middle part of the control rod is rotatably connected to the base and one end of the control rod is provided between a water tub and a shell of the washing machine for bearing an eccentric hit from the water tub, characterized in that the control switch comprises a first control switch and a second control switch which are arranged to be controlled by said control rod such that the motion strokes of the control rod corresponding to the first control switch and the second control switch for motion are different, namely the control rod providing two motion strokes respectively for controlling a switch-off of the first control switch and the second control switch, wherein the motion stroke of the control rod for switching off the first control switch is smaller than the motion stroke of the control rod for switching off the second control switch.
A time-of-flight apparatus comprising: a transmitter including a laser for providing a laser pulse and an optical phased array coupled to the laser for receiving the laser pulse and providing a plurality of beams (1, 2, 3, 4) which fan out from the optical phased array; a receiver including an optical receiving unit for receiving scattered light from the plurality of beams (1, 2, 3, 4) and a photodetector array coupled to the optical receiving unit and comprising a plurality of photodetectors (51, 52, 53, 54), wherein at least one particular photodetector of the photodetector array is disposed for receiving scattered light from each particular one beam of the plurality of beams (1, 2, 3, 4), wherein the plurality of beams (1, 2, 3, 4) is shaped as a fan of beams extending from the optical phased array, wherein the optical phase array is configured for steering the fan of beams; and wherein at least one particular photodetector of the photodetector array is disposed for receiving scattered light from each particular one beam of the fan of beams while the fan of beams is steered by the optical phased array. a transmitter including a laser for providing a laser pulse and an optical phased array coupled to the laser for receiving the laser pulse and providing a plurality of beams (1, 2, 3, 4) which fan out from the optical phased array; a receiver including an optical receiving unit for receiving scattered light from the plurality of beams (1, 2, 3, 4) and a photodetector array coupled to the optical receiving unit and comprising a plurality of photodetectors (51, 52, 53, 54), wherein at least one particular photodetector of the photodetector array is disposed for receiving scattered light from each particular one beam of the plurality of beams (1, 2, 3, 4), wherein the plurality of beams (1, 2, 3, 4) is shaped as a fan of beams extending from the optical phased array, wherein the optical phase array is configured for steering the fan of beams; and wherein at least one particular photodetector of the photodetector array is disposed for receiving scattered light from each particular one beam of the fan of beams while the fan of beams is steered by the optical phased array.
A method for transferring data within a battery management system, the battery management system having a battery monitoring device, a communication bus, and a main controller, the method comprising: identifying a non-modifiable node ID associated with the battery monitoring device from a hardware component of the battery monitoring device, utilizing a microprocessor of the battery monitoring device; computing a network ID for the battery monitoring device based on the nonmodifiable node ID, utilizing the microprocessor; measuring operational parameters associated with at least one battery cell, utilizing the battery monitoring device; and transmitting data corresponding to the measured operational parameters from the microprocessor through the communication bus to the main controller, utilizing the network ID. identifying a non-modifiable node ID associated with the battery monitoring device from a hardware component of the battery monitoring device, utilizing a microprocessor of the battery monitoring device; computing a network ID for the battery monitoring device based on the nonmodifiable node ID, utilizing the microprocessor; measuring operational parameters associated with at least one battery cell, utilizing the battery monitoring device; and transmitting data corresponding to the measured operational parameters from the microprocessor through the communication bus to the main controller, utilizing the network ID.
Motor vehicle with a transmission and with a transmission oil pump for pumping transmission oil into or within the transmission, wherein a movable element of the transmission oil pump is coupled to a sum shaft of a planetary gear, from which a first drive shaft is driven by a drive, in particular a combustion engine, of the motor vehicle during its operation, and by which a second drive shaft can be driven by an additional drive, in particular an electric motor, with a freewheel between one of the drives (10, 26) or a shaft coupled to said drive (10, 26) and a housing of the transmission or a housing of the electric motor, characterised in that the freewheel is provided between a sun gear of the planetary gear or a shaft connected to the sun gear as one of the drives (10, 26) and the housing.
A thermally and electrically conductive adhesive composition, comprising: an electrically conductive filler, an epoxy resin, a curing agent, an organic solvent, wherein the electrically conductive filler is a submicron fine silver powder, and the content of the electrically conductive filler is such that / is 96.0 / 4.0 to 99.5 / 0.5 in the mass ratio to the content of the epoxy resin, and the epoxy resin comprises at least a bisphenol-type epoxy resin and a novolac-type epoxy resin wherein the mass ratio of the bisphenol-type epoxy resin and the novolac-type epoxy resin contained in the epoxy resin is such that bisphenol-type epoxy resin / novolac-type epoxy resin is 40 / 60 to 80 / 20, and the curing agent is diaminodiphenyl sulfone and/or a derivative thereof, and the content of the curing agent is 0.4 to 2.4 molar equivalents in terms of equivalent of active hydrogen relative to 1 molar equivalent of epoxy groups in the epoxy resin. an electrically conductive filler, an epoxy resin, a curing agent, an organic solvent, wherein
A polyethylene porous film having an average pore diameter of 200 nm or less, a specific surface area of 50 m 2 /g or more, and a porosity of 15% or more, each of which is measured by a mercury intrusion method at room temperature, 20°C, the polyethylene porous film having pores obtained by forming pores by separating between lamellar crystals only by drawing a film exhibiting the lamellar crystals, the film exhibiting the lamellar crystals, and an amorphous region existing between the lamellar crystals is separated, the film containing: an ultrahigh molecular weight polyethylene having a viscosity average molecular weight of from 1 million to 15 million; and a polyethylene having a weight average molecular weight of from 10,000 to 800,000 at a mass ratio of from 50:50 to 99:1. the film containing: an ultrahigh molecular weight polyethylene having a viscosity average molecular weight of from 1 million to 15 million; and a polyethylene having a weight average molecular weight of from 10,000 to 800,000 at a mass ratio of from 50:50 to 99:1. an ultrahigh molecular weight polyethylene having a viscosity average molecular weight of from 1 million to 15 million; and a polyethylene having a weight average molecular weight of from 10,000 to 800,000 at a mass ratio of from 50:50 to 99:1.
Drip irrigation tube with dispensing elements, which are arranged continuously on a support, which is arranged in the drip irrigation tube, which dispensing elements each comprise an inlet region, through which the water from the drip irrigation tube enters the dispensing element, a dispensing region, in which the pressure of the through-flowing water is reduced, and an outlet region, through which the water exits the drip irrigation tube, at least two outlet openings being disposed in the tube wall in the outlet region, which openings are spaced from one another in the longitudinal direction of the drip irrigation tube, characterized in that the outlet regions each have at least one outlet chamber, in the region of which two mutually spaced outlet openings are disposed in the tube wall, in that water is fed into each outlet chamber in a central region, the distance of the outlet openings from the water infeed thereby being equal, and in that the outlet chambers of the outlet regions are arranged offset relative to the dispensing regions in the longitudinal direction of the drip irrigation tube.