mhurhangee/ep-ind-claims huggingface dataset:
A vehicle for use in a combined vehicle passive entry/passive start (PEPS) and mobile electronic device wireless charging system, said vehicle comprising: a vehicle transmitter (32; 34) configured to transmit a signal in accordance with a wireless charging protocol, the signal transmitted through a first wireless communications channel for receipt by a mobile electronic device; a vehicle receiver (40; 42) configured to receive response data from the mobile electronic device through a second wireless communications channel, the response data generated by the mobile electronic device in response to receipt of the signal transmitted by the vehicle transmitter (32; 34); and a vehicle processor module configured to at least one of unlock doors of the vehicle and start the vehicle in response to receipt of the response data by the vehicle receiver (40; 42); wherein the vehicle transmitter (32; 34) is a first vehicle transmitter at an exterior of the vehicle for passive entry; and wherein a second vehicle transmitter is at an interior of the vehicle for passive change of a power mode of the vehicle. a vehicle transmitter (32; 34) configured to transmit a signal in accordance with a wireless charging protocol, the signal transmitted through a first wireless communications channel for receipt by a mobile electronic device; a vehicle receiver (40; 42) configured to receive response data from the mobile electronic device through a second wireless communications channel, the response data generated by the mobile electronic device in response to receipt of the signal transmitted by the vehicle transmitter (32; 34); and a vehicle processor module configured to at least one of unlock doors of the vehicle and start the vehicle in response to receipt of the response data by the vehicle receiver (40; 42); wherein the vehicle transmitter (32; 34) is a first vehicle transmitter at an exterior of the vehicle for passive entry; and wherein a second vehicle transmitter is at an interior of the vehicle for passive change of a power mode of the vehicle.
A process for the isolation of a carotenoid from a carotenoid-producing bioorganism comprising the following steps (i) extraction of the carotenoid from the biomass by at least one solvent, and (ii) optionally at least one washing step using at least one solvent, which is not miscible with the solvent, and (iii) optionally drying the obtained solution which comprises the carotenoid, characterised in that after the step (i) at least one washing step using an aqueous solution of a Bronsted acid is carried out (step (i')) wherein the Bronsted acid is chosen from the group consisting of citric acid, tartaric acid and maleic acid. (i) extraction of the carotenoid from the biomass by at least one solvent, and (ii) optionally at least one washing step using at least one solvent, which is not miscible with the solvent, and (iii) optionally drying the obtained solution which comprises the carotenoid,
A single fiber bi-directional optical module, comprising a self-search circuit respectively connected to a transmission selection circuit and a receiving selection circuit, wherein: the self-search circuit is configured to search for channels, and instruct, according to a channel search result, the transmission selection circuit to transmit optical signals through one of at least two channels for transmitting optical signals, wherein optical wavelengths of the at least two channels for transmitting optical signals are different; the self-search circuit is further configured to instruct, according to a channel search result, the receiving selection circuit to receive optical signals through one of at least two channels for receiving optical signals; wherein optical wavelengths of the at least two channels for receiving optical signals correspond to the optical wavelengths of the at least two channels for transmitting optical signals; the self-search circuit is further configured to detect whether any exception occurs when the receiving selection circuit receives optical signals; and if an exception occurs when the receiving selection circuit receives optical signals, the self-search circuit is further configured to instruct the transmission selection circuit and the receiving selection circuit to switch a current channel for receiving optical signals and a current channel for transmitting optical signals. the self-search circuit is configured to search for channels, and instruct, according to a channel search result, the transmission selection circuit to transmit optical signals through one of at least two channels for transmitting optical signals, wherein optical wavelengths of the at least two channels for transmitting optical signals are different; the self-search circuit is further configured to instruct, according to a channel search result, the receiving selection circuit to receive optical signals through one of at least two channels for receiving optical signals; wherein optical wavelengths of the at least two channels for receiving optical signals correspond to the optical wavelengths of the at least two channels for transmitting optical signals; the self-search circuit is further configured to detect whether any exception occurs when the receiving selection circuit receives optical signals; and if an exception occurs when the receiving selection circuit receives optical signals, the self-search circuit is further configured to instruct the transmission selection circuit and the receiving selection circuit to switch a current channel for receiving optical signals and a current channel for transmitting optical signals.
An ESD protection device for a touch panel, comprising: an ESD protection circuit (T1, T2) and a protection switch connected in series to the ESD protection circuit (T1, T2); wherein the ESD protection device is adapted to: when an electrostatic potential of a sensing line or a driving line of the touch panel is equal to or greater than a preset potential, turn on the protection switch such that the ESD protection circuit (T1,T2) is in conduction with the protection switch, so that static electricity from the sensing line or the driving line is leaked to a peripheral common electrode busbar, or an ESD discharge busbar, or a ground busbar; and when a panel of the touch panel is normally driven, the protection switch is turned off; wherein the ESD protection circuit (T1, T2) includes at least a pair of Thin Film Transistors, the pair of Thin Film Transistors comprises a first Thin Film Transistor and a second Thin Film Transistor, and the first Thin Film Transistor and the second Thin Film Transistor are connected with each other in a back-to-back configuration, wherein the gate and the source of the first Thin Film Transistor are connected with the drain of the second Thin Film Transistor, and the drain of the first Thin Film Transistor is connected with the gate and the source of the second Thin Film Transistor. when an electrostatic potential of a sensing line or a driving line of the touch panel is equal to or greater than a preset potential, turn on the protection switch such that the ESD protection circuit (T1,T2) is in conduction with the protection switch, so that static electricity from the sensing line or the driving line is leaked to a peripheral common electrode busbar, or an ESD discharge busbar, or a ground busbar; and when a panel of the touch panel is normally driven, the protection switch is turned off; wherein the ESD protection circuit (T1, T2) includes at least a pair of Thin Film Transistors, the pair of Thin Film Transistors comprises a first Thin Film Transistor and a second Thin Film Transistor, and the first Thin Film Transistor and the second Thin Film Transistor are connected with each other in a back-to-back configuration, wherein the gate and the source of the first Thin Film Transistor are connected with the drain of the second Thin Film Transistor, and the drain of the first Thin Film Transistor is connected with the gate and the source of the second Thin Film Transistor.
A method for controlling a reactive current injection in a wind power plant, comprising a plurality of wind turbine generators, during a grid fault during which the wind power plant operates in a fault ride-through mode, characterised in that the method comprises: obtaining, at a point of common coupling between the grid and the wind power plant, a reactive current output of the wind power plant to be provided to the grid during the grid fault; determining a difference between a given reactive current contribution required from the wind power plant and the obtained reactive current output of the wind power plant; and controlling the plurality of wind turbine generators in the wind power plant to generate additional reactive current according to a reactive current reference generated based on the difference. obtaining, at a point of common coupling between the grid and the wind power plant, a reactive current output of the wind power plant to be provided to the grid during the grid fault; determining a difference between a given reactive current contribution required from the wind power plant and the obtained reactive current output of the wind power plant; and controlling the plurality of wind turbine generators in the wind power plant to generate additional reactive current according to a reactive current reference generated based on the difference.
Method for managing industrial truck fleets with at least one industrial truck and a mobile or stationary terminal which can be connected to fleet management software, the mobile or stationary terminal and the industrial truck having a Bluetooth interface and a data connection to the mobile or stationary terminal being made via Bluetooth, characterized in that a device name of the Bluetooth interface of the industrial truck contains a vehicle serial number of the industrial truck.
A cover for a fluid container comprising an essentially plane cover plate for closing at least one opening of at least one fluid container and at least two ports (11,12), wherein each port (11,12) comprises a through channel (110,120) extending through the entire thickness of the cover plate, wherein a fluid impermeable first membrane is arranged over the entire cross section of the through channel of the first port and in that an at least gas permeable second membrane (3;30) is arranged over the entire cross section of the through channel of the second port, characterized in that the cover comprises: - a holding plate which is arranged on the inner side of the cover plate, wherein the first and/or second membranes (2,3;30) are clamped between the cover plate and the holding plate and wherein the holding plate comprises through channels (160,161,162) that are aligned with the corresponding through channels (110,120,130) of the cover plate, and - an aspiration tube which is provided on a side of the holding plate facing away from the cover plate, extending from the holding plate, forming an extension of the through channel of the holding plate that is aligned with the through channel of the first port of the cover plate. - a holding plate which is arranged on the inner side of the cover plate, wherein the first and/or second membranes (2,3;30) are clamped between the cover plate and the holding plate and wherein the holding plate comprises through channels (160,161,162) that are aligned with the corresponding through channels (110,120,130) of the cover plate, and - an aspiration tube which is provided on a side of the holding plate facing away from the cover plate, extending from the holding plate, forming an extension of the through channel of the holding plate that is aligned with the through channel of the first port of the cover plate.
A method of making a melt-processable material comprising: processing a polymeric material comprising a thermoplastic material and a cross-linked polymeric foam to form a processed polymeric material comprising a processed thermoplastic material and a processed cross-linked polymeric foam wherein the processed polymeric material has an average particle size suitable for feeding to a melt processor and the processed cross-linked polymeric foam has an average particle size less than or equal to the average cell size of the cross-linked polymeric foam; feeding the processed polymeric material to the melt processor; and melt mixing a composition comprising the processed polymeric material in the melt processor at a temperature sufficient to melt the processed thermoplastic material wherein the processed cross-linked foam has a domain size, under melt mixing conditions, less than or equal to the processing spaces of the melt processor, the domain size being the volume occupied by a discrete portion of the processed cross-linked foam material. processing a polymeric material comprising a thermoplastic material and a cross-linked polymeric foam to form a processed polymeric material comprising a processed thermoplastic material and a processed cross-linked polymeric foam wherein the processed polymeric material has an average particle size suitable for feeding to a melt processor and the processed cross-linked polymeric foam has an average particle size less than or equal to the average cell size of the cross-linked polymeric foam; feeding the processed polymeric material to the melt processor; and melt mixing a composition comprising the processed polymeric material in the melt processor at a temperature sufficient to melt the processed thermoplastic material wherein the processed cross-linked foam has a domain size, under melt mixing conditions, less than or equal to the processing spaces of the melt processor, the domain size being the volume occupied by a discrete portion of the processed cross-linked foam material.
An insulating film, being configured to wrap a battery assembly, wherein the insulating film comprises a bottom coverage area, N side coverage areas and N pairs of bonding areas, N is an integer greater than 2; the bottom coverage area having N sides, and the N side coverage areas being respectively connected to the bottom coverage area at the N sides, and can bend toward the bottom coverage area along the N sides respectively; each pair of the N pairs of bonding areas being located between two adjacent side coverage areas of the N side coverage areas, and being connected to the two adjacent side coverage areas respectively; each pair of bonding areas is configured to make the bottom coverage area and the N sides coverage areas form a space wrapping the battery assembly by bonding surfaces on the same side of each pair of bonding areas when the N sides coverage areas bend toward the bottom coverage area; wherein a width of a first bonding area in each pair of bonding areas is greater than a width of a second bonding area, and after bonding, each pair of bonding areas can bend toward the side coverage area adjacent to the second bonding area, wherein the part that is not bonded with the second bonding area in the first bonding area is configured to bond to the side coverage area adjacent to the second bonding area. the bottom coverage area having N sides, and the N side coverage areas being respectively connected to the bottom coverage area at the N sides, and can bend toward the bottom coverage area along the N sides respectively; each pair of the N pairs of bonding areas being located between two adjacent side coverage areas of the N side coverage areas, and being connected to the two adjacent side coverage areas respectively; each pair of bonding areas is configured to make the bottom coverage area and the N sides coverage areas form a space wrapping the battery assembly by bonding surfaces on the same side of each pair of bonding areas when the N sides coverage areas bend toward the bottom coverage area; wherein a width of a first bonding area in each pair of bonding areas is greater than a width of a second bonding area, and after bonding, each pair of bonding areas can bend toward the side coverage area adjacent to the second bonding area, wherein the part that is not bonded with the second bonding area in the first bonding area is configured to bond to the side coverage area adjacent to the second bonding area.
A process for the production of a target recombinant polypeptide which comprises expressing, in a prokaryotic host, an expression cassette encoding the target polypeptide and a secretion leader and co-expressing an expression cassette encoding a member of the Mia 40 family and a secretion leader, and an expression cassette encoding a member of the erv1 or erv2 families and a secretion leader.
A lithography machine, comprising: at least two projection cameras (15, 16) positioned to project images from respective image sources (25,26) onto a first substrate and a second substrate simultaneously; characterized in that: the lithography machine further comprises a stage adapted to carry the first and second substrates and to move relative to the projection cameras; and in that each projection camera (15, 16) includes an independent, multi-axis, alignment system for correcting at least four alignment errors independent of moving a projection optic by aligning a respective image to a respective substrate by moving the respective image source. at least two projection cameras (15, 16) positioned to project images from respective image sources (25,26) onto a first substrate and a second substrate simultaneously; characterized in that: the lithography machine further comprises a stage adapted to carry the first and second substrates and to move relative to the projection cameras; and in that each projection camera (15, 16) includes an independent, multi-axis, alignment system for correcting at least four alignment errors independent of moving a projection optic by aligning a respective image to a respective substrate by moving the respective image source. the lithography machine further comprises a stage adapted to carry the first and second substrates and to move relative to the projection cameras; and in that each projection camera (15, 16) includes an independent, multi-axis, alignment system for correcting at least four alignment errors independent of moving a projection optic by aligning a respective image to a respective substrate by moving the respective image source.
Drive for opening and/or closing a moveable leaf of a door or of a window, with an output member, which can be coupled to the leaf of the door or of the window, and with a piston that is displaceably guided in a cylinder of the drive, which is movement-coupled to the output member, and with a damping device for damping the movement of the piston in at least one direction, and with a hydraulic pump, which can be driven by a drive motor, wherein the piston subdivides the cylinder into at least two pressure chambers (15, 16), wherein the pressure side of the hydraulic pump is connected via at least one channel section (20, 26, 27, 28, 29) to at least one pressure chamber (15, 16), and wherein a control device for activating the drive motor is provided, characterized in that the damping device comprises at least one proportional valve (37, 38) which can be activated by the control device, wherein between the pressure chamber (15, 16) connected to the pressure side of the hydraulic pump and the proportional valve (37, 38) at least one shut-off valve is arranged and wherein the shut-off valve is designed as electrically switchable solenoid valve and can be activated by the control device of the drive motor in the sense of opening when a movement of the piston is to take place.
A circuit arrangement for reducing potential-induced degradation in photovoltaic modules of a photovoltaic generator, comprising an insulation monitoring device for a temporally continuous insulation monitoring of the photovoltaic generator, characterized in that the insulation monitoring device is connected symmetrically between a positive pole (L+) of the photovoltaic generator and ground and between a negative pole (L-) of the photovoltaic generator and ground and that the circuit arrangement comprises an impulse coupling circuit, which is symmetrically connected between the positive pole (L+) of the photovoltaic generator and ground and between the negative pole (L-) of the photovoltaic generator and ground for coupling positive voltage impulses.
A method for wireless communication, which is performed in a communication system using at least two beams, wherein the communication system comprises at least one network device and at least one terminal device and the method comprises: receiving, by a first terminal device, configuration information sent by a network device, the configuration information being used to indicate a respective transmission resource available for each of M downlink beam groups, and each downlink beam group comprising at least one beam of the at least two beams and M≥1; and determining by the first terminal device, the respective transmission resource available for each of the M downlink beam groups according to the configuration information, wherein receiving, by the first terminal device, the configuration information sent by the network device comprises: receiving, by the first terminal device, the configuration information sent to a plurality of terminal devices comprising the first terminal device by the network device through a Physical Broadcast Channel, PBCH, wherein the respective transmission resource available for each downlink beam group comprises no transmission resource reserved by the communication system, and the transmission resource reserved by the communication system is only used to transmit a synchronization channel or the PBCH, and wherein the transmission resource available for a first downlink beam group of the M downlink beam groups comprises a first transmission resource for a control channel carried on the first downlink beam group. receiving, by a first terminal device, configuration information sent by a network device, the configuration information being used to indicate a respective transmission resource available for each of M downlink beam groups, and each downlink beam group comprising at least one beam of the at least two beams and M≥1; and determining by the first terminal device, the respective transmission resource available for each of the M downlink beam groups according to the configuration information, wherein receiving, by the first terminal device, the configuration information sent by the network device comprises: receiving, by the first terminal device, the configuration information sent to a plurality of terminal devices comprising the first terminal device by the network device through a Physical Broadcast Channel, PBCH, wherein the respective transmission resource available for each downlink beam group comprises no transmission resource reserved by the communication system, and the transmission resource reserved by the communication system is only used to transmit a synchronization channel or the PBCH, and wherein the transmission resource available for a first downlink beam group of the M downlink beam groups comprises a first transmission resource for a control channel carried on the first downlink beam group.
A device for removing moisture from a hydraulic medium that has at least one gaseous drying medium, the drying medium being air and/or some other working gas that has a corresponding moisture absorbing capacity that is only conducted by means of a conveying device from an area surrounding the hydraulic medium to the hydraulic medium when the moisture content of the respective gaseous drying medium is lower than the degree of water saturation of the hydraulic medium, characterised in that the device comprises at least one sensor for determining the moisture content and the temperature of the drying medium conducted to the hydraulic medium and a sensor for determining the moisture content and the temperature of the hydraulic medium.