mhurhangee/ep-ind-claims huggingface dataset:
Motor vehicle for piloted driving with a front axle steering system and a rear axle steering system, wherein in the activated, error-free driving state during piloted driving, the driving task for steering the front axle is carried out by a front axle steering control system which automatically controls the front axle steering system, and wherein a failure detection device automatically detects a failure of the automatic front axle steering control system and the vehicle steering is taken over by the rear axle steering system, characterised in that the motor vehicle is equipped with a device for controlled wheel-selective brake interventions and in that this device is controlled in the event of failure of automatic front axle steering control in such a way that automatic centring of the front axle steering system is carried out by means of wheel-selective brake interventions.
A patient positioner system, comprising: a robotic arm providing five degrees of rotational freedom and a linear degree of freedom in the vertical direction having a first robot arm segment, a second robot arm segment that is moveably attached at a first end thereof to the second end of the first robot arm segment, the second robot arm segment is attached to the first arm segment to extend parallel thereto such that the second arm segment is rotatable, a robotic wrist assembly is attached at the second end of the second arm segment, extending generally upward therefrom so as not to interfere with rotation of the second arm segment with respect to the first arm segment; and a patient table attached to the wrist assembly; characterized in that the second arm segment passes over the first arm segment, that the robotic arm has a positioning envelope in which the wrist can be positioned, the envelope having a constant radius that extends in a continuous 360 degree circumference, and that the first and second arm segments (26, 40) are substantially of the same length such that the wrist is positionable anywhere within the circumference of the envelope defined by the constant radius such that the envelope is free of dead spots. a robotic arm providing five degrees of rotational freedom and a linear degree of freedom in the vertical direction having a first robot arm segment, a second robot arm segment that is moveably attached at a first end thereof to the second end of the first robot arm segment, the second robot arm segment is attached to the first arm segment to extend parallel thereto such that the second arm segment is rotatable, a robotic wrist assembly is attached at the second end of the second arm segment, extending generally upward therefrom so as not to interfere with rotation of the second arm segment with respect to the first arm segment; and
A mass spectrometer adopting a differential pumping system comprising: an ionization chamber with substantially atmospheric pressure; a mass analyzing chamber with low pressure; one or more intermediate vacuum chambers (4, 8) provided between the ionization chamber and the mass analyzing chamber, all of which form a series of chambers with an order of higher to lower pressure; a hole provided between adjoining chambers for allowing ions to be mass analyzed to pass through; and an ion lens (5, 9) in the one or more intermediate vacuum chambers (4, 8), characterized in that the mass spectrometer further comprises an AC electric field generator (6, 13) for generating an AC electric field in the space around the hole for confining an ion to the hole, wherein the AC electric field generator (6, 13) is a combination of an electrode having an aperture placed near the hole, between the hole and the ion lens (5, 9), and a voltage generator for applying an AC voltage to the electrode, the aperture is placed on a side of a chamber of higher pressure, the hole is conically shaped with a larger diameter on the side of the higher pressure chamber, and the mass spectrometer is configured such that the AC electric field intrudes into the space surrounded by a conical wall of the hole. an ionization chamber with substantially atmospheric pressure; a mass analyzing chamber with low pressure; one or more intermediate vacuum chambers (4, 8) provided between the ionization chamber and the mass analyzing chamber, all of which form a series of chambers with an order of higher to lower pressure; a hole provided between adjoining chambers for allowing ions to be mass analyzed to pass through; and an ion lens (5, 9) in the one or more intermediate vacuum chambers (4, 8), characterized in that the mass spectrometer further comprises an AC electric field generator (6, 13) for generating an AC electric field in the space around the hole for confining an ion to the hole, wherein the AC electric field generator (6, 13) is a combination of an electrode having an aperture placed near the hole, between the hole and the ion lens (5, 9), and a voltage generator for applying an AC voltage to the electrode, the aperture is placed on a side of a chamber of higher pressure, the hole is conically shaped with a larger diameter on the side of the higher pressure chamber, and the mass spectrometer is configured such that the AC electric field intrudes into the space surrounded by a conical wall of the hole.
A process for preparing (meth)acrylic esters of polyols, the amount in these esters of species in which all of the OH groups of the polyols are esterified being 80 mol% or more, by reaction of polyols with acrylic acid and/or methacrylic acid in the presence of acidic esterification catalysts and in the presence of polymerization inhibitors, operating with reaction mixtures which are liquid at reaction temperature and are free from nonreacting solvents and/or azeotropic entrainers, the resultant water of condensation being stripped from the gas phase of the reaction space, characterized in that (meth)acrylic acid is metered in in 4 to 16 portions, with the following provisos: • the amount of the individual (meth)acrylic acid portions is set in each case in the range from 5 to 40 mol%, based on the entirety of the OH groups of the polyols used, • the number of (meth)acrylic acid portions, multiplied by the amount of (meth)acrylic acid portions used (in mol%), produces a figure of at least 100 (mol%), • the reaction temperature is set to a level in the range from 70 to 150°C, and • the water formed in the reaction is removed from the reaction space under reduced pressure, the reduced pressure being 600 hPa or less. • the amount of the individual (meth)acrylic acid portions is set in each case in the range from 5 to 40 mol%, based on the entirety of the OH groups of the polyols used, • the number of (meth)acrylic acid portions, multiplied by the amount of (meth)acrylic acid portions used (in mol%), produces a figure of at least 100 (mol%), • the reaction temperature is set to a level in the range from 70 to 150°C, and • the water formed in the reaction is removed from the reaction space under reduced pressure, the reduced pressure being 600 hPa or less.
Bioreactor for the cultivation of phototropic micro-organisms, comprising a continuous cultivation volume with an inlet and an outlet, which is provided between two plates arranged above one another, an upper light-permeable plate and a lower plate, with a spacing interval, wherein gas-permeable membranes, membrane strips, and/or membrane tubes are integrated into the lower plate, characterised in that both plates, parallel to one another, comprise in each case a plurality of shapings with elevations and depressions in a regularly repeating geometrical pattern, wherein the spacing interval between the two plates is constant over the entire surface of the bioreactor.
A method for a user equipment, UE, to transmit, to a base station, an acknowledgement signal using transmission antenna diversity in a Quaternary Phase Shift Keying, QPSK, constellation, the method comprising: determining a control channel resource for transmission of the acknowledgement signal using resource information associated with a downlink control information, DCI, format in a downlink sub-frame; and transmitting the acknowledgement signal from at least one of a first antenna and a second antenna using the determined control channel resource, characterised in that if the UE receives the DCI format in a second downlink sub-frame, the UE determines the control channel resource using a first control channel element, CCE, associated with the DCI format in the second downlink sub-frame and transmits the acknowledgement signal from the first antenna in the QPSK constellation, wherein if the UE also receives the DCI format in a first downlink sub-frame, the UE determines the control channel resource using a first CCE associated with the DCI format in the first downlink sub-frame and transmits the acknowledgement signal from the second antenna in the QPSK constellation, wherein if the UE receives the DCI format only in the first downlink sub-frame, the UE determines the control channel resource using the first CCE associated with the DCI format in the first downlink sub-frame and transmits the acknowledgement signal by either using one antenna in the QPSK constellation between the first antenna and the second antenna or by combining the transmission from multiple antennas in the QPSK constellation. determining a control channel resource for transmission of the acknowledgement signal using resource information associated with a downlink control information, DCI, format in a downlink sub-frame; and transmitting the acknowledgement signal from at least one of a first antenna and a second antenna using the determined control channel resource, characterised in that if the UE receives the DCI format in a second downlink sub-frame, the UE determines the control channel resource using a first control channel element, CCE, associated with the DCI format in the second downlink sub-frame and transmits the acknowledgement signal from the first antenna in the QPSK constellation, wherein if the UE also receives the DCI format in a first downlink sub-frame, the UE determines the control channel resource using a first CCE associated with the DCI format in the first downlink sub-frame and transmits the acknowledgement signal from the second antenna in the QPSK constellation, wherein if the UE receives the DCI format only in the first downlink sub-frame, the UE determines the control channel resource using the first CCE associated with the DCI format in the first downlink sub-frame and transmits the acknowledgement signal by either using one antenna in the QPSK constellation between the first antenna and the second antenna or by combining the transmission from multiple antennas in the QPSK constellation.
Method for reading a data card which is arranged in a data card receiving apparatus of a tachograph of a motor vehicle, has two partial data sets and is a driver card or a workshop card, wherein a first partial data set of the data card is read into the tachograph by the tachograph, and wherein supplementary data supplementing the first partial data set of the data card are subsequently added into the tachograph, characterized in that, while adding the supplementary data to the data card and/or immediately after the supplementary data have been added to the data card, the tachograph automatically checks whether a second data card, which is a driver card or a workshop card, is arranged in a second data card receiving apparatus of the tachograph, with the result that, after the supplementary data have been added, the second partial data set of the data card is not immediately read in by the tachograph, but rather a check is first of all carried out in order to determine whether a second data card is arranged in the tachograph, and in that, if the second data card is present in the second data card receiving apparatus, a first partial data set of the second data card is automatically read into the tachograph by the tachograph, in that second supplementary data supplementing the first partial data set of the second data card are subsequently added into the tachograph, and in that, after the second supplementary data have been added to the second data card, the second partial data set of the first data card or the second partial data set of the second data card is read into the tachograph by the tachograph.
Bracing arrangement for a drive train of a motor vehicle for prestressing a plug-in connection in the circumferential direction between a transmission-side subunit, in particular a clutch assembly, for example a double clutch, and an engine-side subunit, in particular a torsional vibration damper, for example a dual mass flywheel, having a flange, in particular an output flange of the torsional vibration damper or an input flange of the clutch assembly, the flange (12, 20) having a profiling for transmitting a torque in the circumferential direction to a corresponding profile, a spring element which is fastened via a first end to the flange (12, 20) for providing a prestressing force in the circumferential direction from the flange (12, 20) to the corresponding profile, and a bracing plate which is connected to a second end of the spring element, the bracing plate being supported in the circumferential direction via a fastening bracket which runs only axially on the corresponding profile substantially at the radial level of the profiling of the flange (12, 20), the profiling and the corresponding profile forming a spline system, the corresponding profile having tooth spaces which are distributed in the circumferential direction for receiving in each case one corresponding inner tooth of the flange (12, 20), the fastening bracket of the bracing plate protruding into at least one tooth space, characterized in that exclusively the fastening bracket is arranged in that tooth space, into which the fastening bracket protrudes.
A gasification reactor comprising: • a reactor chamber; • steam generating heat exchange units (3, 15, 16); • at least one steam drum; • recirculation lines for circulating water and steam between one or more of the heat exchange units (3, 15, 16) and the steam drum, wherein the steam drum further comprises a steam feed line for transporting steam via a heat exchange unit and a superheated steam line to a superheated steam header, wherein the heat exchange unit between the steam drum and the super heated steam header is a waste heat recovery unit downstream of the reactor chamber, wherein the superheated steam line is split into a return line leading to a heat exchange line through the steam drum, and a header feed line, wherein the reactor comprises one or more valves (37, 38, 39) for selectively opening or closing the return line or the header feed line wherein the heat exchange line through the steam drum is connected to a secondary superheated steam feed line leading to the superheated steam header and wherein the secondary superheated steam feed line joins the header feed line before opening into the superheated steam header. • a reactor chamber; • steam generating heat exchange units (3, 15, 16); • at least one steam drum; • recirculation lines for circulating water and steam between one or more of the heat exchange units (3, 15, 16) and the steam drum,
Panel for horses, comprising a preferably rectangular frame and a plurality of cross struts arranged in the frame, characterised in that in a lower region of the panel the distance between the individual cross struts is at most 5 cm and in an upper region of the panel the distance between the individual cross struts is at least approx. 30 cm and is preferably in the range between approx. 30 cm and approx. 80 cm.
System for attaching a faceplate comprising a plurality of holes, to a box built into a wall in such a way as to be substantially flush with an unworked face of the wall and comprising a same plurality of housings facing holes, by means of a same plurality of screws, each screw comprising a head and a threaded rod, each hole being a through-hole and able to allow the passage of a threaded rod and to stop a head, each housing being able to receive a threaded rod, characterised in that the system further comprises a same plurality of removable spacers, each spacer able to be disposed between the faceplate and the box, mainly extended along an axis and comprising a sleeve along the axis, a bore along the axis able to receive a threaded rod and a first axial stop extending radially with respect to the axis and shaped in such a way as to be able to bear against a finished face of the wall, away from the unworked face, and in that a spacer further comprises a box endpiece disposed at another end of the sleeve facing the box and shaped like a dowel, able to be introduced into a housing, in such a way as to be able to expand in the housing during the screwing of a threaded rod in the box endpiece, a spacer being made from an electrically insulated material, preferably from plastic, more preferably from polypropylene.
A method for the isolation of exosomes from a biological fluid sample comprising: a) adding a volume-excluding polymer to the biological fluid sample, b) incubating the biological fluid sample with the volume-excluding polymer; and c) isolating the precipitated exosomes from the biological fluid sample, and d) fractionating the isolated exosomes using the presence of surface markers, wherein the volume-excluding polymer is polyethylene glycol, dextran, dextran sulfate, dextran acetate, polyvinyl alcohol, polyvinyl acetate, or polyvinyl sulfate. a) adding a volume-excluding polymer to the biological fluid sample, b) incubating the biological fluid sample with the volume-excluding polymer; and c) isolating the precipitated exosomes from the biological fluid sample, and d) fractionating the isolated exosomes using the presence of surface markers,
An inter-system information exchange method of a data forwarding for a handover of a user equipment from a first wireless communications system to a second wireless communications system, comprising: receiving, by a user-plane core network device in the first wireless communications system from a wireless access device in the first wireless communications system, a packet comprising data in a tunnel per a protocol data unit, PDU, session and an identifier of a quality of service, QoS, flow which the data belongs to, wherein the tunnel per the PDU session is a tunnel between the user-plane core network device and the wireless access device, the first wireless communications system is a fifth generation, 5G, wireless communications system and the second wireless communications system is a long term evolution, LTE, wireless communications system; mapping, by the user-plane core network device, the data in the tunnel per the PDU session to a tunnel for a service bearer in the second wireless communications system and removing the identifier of the QoS flow; sending, by the user-plane core network device to the second wireless communications system, the data mapped to the tunnel for the service bearer; wherein the mapping, by the user-plane core network device, the data in the tunnel per the PDU session to the tunnel for the service bearer, comprises: mapping, by the user-plane core network device according to a mapping relationship between the service bearer and the QoS flow which the data belongs to, the data in the tunnel per the PDU session to the tunnel for the service bearer. receiving, by a user-plane core network device in the first wireless communications system from a wireless access device in the first wireless communications system, a packet comprising data in a tunnel per a protocol data unit, PDU, session and an identifier of a quality of service, QoS, flow which the data belongs to, wherein the tunnel per the PDU session is a tunnel between the user-plane core network device and the wireless access device, the first wireless communications system is a fifth generation, 5G, wireless communications system and the second wireless communications system is a long term evolution, LTE, wireless communications system; mapping, by the user-plane core network device, the data in the tunnel per the PDU session to a tunnel for a service bearer in the second wireless communications system and removing the identifier of the QoS flow; sending, by the user-plane core network device to the second wireless communications system, the data mapped to the tunnel for the service bearer; wherein the mapping, by the user-plane core network device, the data in the tunnel per the PDU session to the tunnel for the service bearer, comprises: mapping, by the user-plane core network device according to a mapping relationship between the service bearer and the QoS flow which the data belongs to, the data in the tunnel per the PDU session to the tunnel for the service bearer.
A method of data processing based on smart contract, implemented by an endorsement node in a blockchain network, comprising: determining a current endorsement time based on a generating time point of the previous block in an endorsement blockchain during calling a time-dependent smart contract; and preprocessing a current transaction processing request based on the current endorsement time to obtain an endorsement processing result, to enable a node other than the endorsement node in the blockchain network to process the current transaction processing request based on the endorsement processing result; wherein the determining the current endorsement time based on the generating time point of the previous block in the endorsement blockchain comprises: determining a generating time point of the current block in the endorsement blockchain based on the generating time point of the previous block in the endorsement blockchain and a block generating time interval; and determining the generating time point of the current block in the endorsement blockchain as the current endorsement time. determining a current endorsement time based on a generating time point of the previous block in an endorsement blockchain during calling a time-dependent smart contract; and preprocessing a current transaction processing request based on the current endorsement time to obtain an endorsement processing result, to enable a node other than the endorsement node in the blockchain network to process the current transaction processing request based on the endorsement processing result; wherein the determining the current endorsement time based on the generating time point of the previous block in the endorsement blockchain comprises: determining a generating time point of the current block in the endorsement blockchain based on the generating time point of the previous block in the endorsement blockchain and a block generating time interval; and determining the generating time point of the current block in the endorsement blockchain as the current endorsement time. determining a generating time point of the current block in the endorsement blockchain based on the generating time point of the previous block in the endorsement blockchain and a block generating time interval; and determining the generating time point of the current block in the endorsement blockchain as the current endorsement time.