mhurhangee/ep-ind-claims huggingface dataset:
A high voltage interlock device comprising: a signal isolation conversion module, an input terminal of the signal isolation conversion module is connectable to one terminal of a high voltage component to be detected, and an output terminal of the signal isolation conversion module is connected to a fault detection module, the signal isolation conversion module is configured to convert a first target electrical signal at the one terminal of the high voltage component to be detected into a first electrical signal to be detected on the premise of ensuring that the high voltage component to be detected is isolated from the fault detection module, wherein the other terminal of the high voltage component to be detected is connectable to a first power supply terminal; a signal processing module arrangeable between the other terminal of the high voltage component to be detected and the first power supply terminal, the output terminal of the signal processing module is connected to the fault detection module, and the signal processing module is configured to output the second electrical signal to be detected to the fault detection module according to a second target electrical signal at the other terminal of the high voltage component to be detected; the fault detection module is specifically configured to determine a fault of the high voltage component to be detected according to the first electrical signal to be detected and the second electrical signal to be detected. a signal isolation conversion module, an input terminal of the signal isolation conversion module is connectable to one terminal of a high voltage component to be detected, and an output terminal of the signal isolation conversion module is connected to a fault detection module, the signal isolation conversion module is configured to convert a first target electrical signal at the one terminal of the high voltage component to be detected into a first electrical signal to be detected on the premise of ensuring that the high voltage component to be detected is isolated from the fault detection module, wherein the other terminal of the high voltage component to be detected is connectable to a first power supply terminal; a signal processing module arrangeable between the other terminal of the high voltage component to be detected and the first power supply terminal, the output terminal of the signal processing module is connected to the fault detection module, and the signal processing module is configured to output the second electrical signal to be detected to the fault detection module according to a second target electrical signal at the other terminal of the high voltage component to be detected; the fault detection module is specifically configured to determine a fault of the high voltage component to be detected according to the first electrical signal to be detected and the second electrical signal to be detected.
A device for separating at least one in particular conveyed surface element, in particular a plastic film or a plastic film composite material, into individual components, having at least one punching tool, which has at least one punching beam that operates against an anvil and is held in place by a framework, characterized in that the punching beam and the framework are connected to one another via a pendulum joint, wherein the pendulum axis of the pendulum joint runs transversely to the longitudinal axis of the punching beam.
A method of managing a plurality of photovoltaic devices in a power generation mode, each photovoltaic device comprising one single input electrode, one single output electrode and a p-n junction semiconductor body positioned between the input electrode and the output electrode, wherein a DC current generated by each photovoltaic device flows from the respective input electrode to the respective output electrode through the respective semiconductor body, said method comprising: applying a voltage signal generated by a voltage source means via a common switching means having a switch control means to control the duration of connection and/or the frequency of switching and being connected in parallel to the single input electrode of each of the plurality of photovoltaic devices, the voltage signal comprising a plurality of first states with a positive magnitude in a first position of said common switching means for generating an external electric field across the photovoltaic devices, and a second state comprising an off cycle between adjacent first states in a second position of said switching means, wherein the first and second states form voltage pulses (V App); and superimposing the first states on top of an existing voltage generated by the photovoltaic devices. applying a voltage signal generated by a voltage source means via a common switching means having a switch control means to control the duration of connection and/or the frequency of switching and being connected in parallel to the single input electrode of each of the plurality of photovoltaic devices, the voltage signal comprising a plurality of first states with a positive magnitude in a first position of said common switching means for generating an external electric field across the photovoltaic devices, and a second state comprising an off cycle between adjacent first states in a second position of said switching means, wherein the first and second states form voltage pulses (V App); and superimposing the first states on top of an existing voltage generated by the photovoltaic devices.
Motor pump unit with vertical wheel axle (XX'), comprising a body (1, 2), from which a discharge nozzle proceeds, the upper part of the side surface of said body being surrounded by a jacket at a horizontal distance such that there is a space between them, characterised by: - an annular channel supported by spacers on the upper face of the body and delimited by a base, an inner face at a distance from the axle (XX') and an outer face, the upper edge of the inner face being lower than the upper edge of the outer face, and - a bypass duct connecting the discharge nozzle with the channel. - an annular channel supported by spacers on the upper face of the body and delimited by a base, an inner face at a distance from the axle (XX') and an outer face, the upper edge of the inner face being lower than the upper edge of the outer face, and - a bypass duct connecting the discharge nozzle with the channel.
A device for operating a gearbox, which operating device comprises an operating rod, a shift finger connected to the operating rod, and at least two electric motors (8,10) acting upon the operating rod, wherein the rotors (12,26) of the electric motors (8,10) are arranged on the operating rod so that the operating rod constitutes a rotor shaft with an axis of both motors (8, 10) and so that a first electric motor is adapted to moving the operating rod by linear movement in the axial direction of the operating rod along the axis of the operating rod and thus controls a lateral travel of the shift finger, and a second electric motor is adapted to effecting rotary movement to turn the operating rod about the axis of the operating rod and thus controls a longitudinal travel of the shift finger, when the respective electric motors (8,10) are energised wherein the second electric motor further comprises a field winding in a stator housing, and wherein the first electric motor is a permanently magnetised linear motor and the second electric motor is a permanently magnetised AC motor or a permanently magnetised DC motor and the second electric motor comprises a rotor provided with permanent magnets of a single polarity characterized in that the operating rod is supported relative to the stator housing of the second electric motor by plain bearings (32,34) and is therefore surrounded by the field winding, such that the rotor moves partly out of contact with the field winding when the operating rod is caused to move in its axial direction, the axis.
A board, comprising a memory, a board in-position detection circuit, and a chip-select enable circuit, characterized in that the board in-position detection circuit is configured to connect to a master device through an in-position signal cable when the board is plugged into any slave device slot on a backplane, so that the master device obtains an in-position signal of the board through the in-position signal cable, wherein the in-position signal is used to indicate an online state of the board, and the slave device slot is connected to the in-position signal cable; the chip-select enable circuit is configured to obtain an address signal corresponding to the slave device slot through an address signal cable when the board is in the online state; wherein the slot number of the slave device slot is bound to the address signal corresponding to the slot; the chip-select enable circuit is connected to the backplane through the address signal cable and the address signal corresponding to the slave device slot bound to the slot number is obtained through the address signal cable when the board is plugged into the slave device slot and the in-position signal is "active"; and the memory is configured to configure a device chip-select enable address of the board according to the address signal corresponding to the slave device slot and obtained by the chip-select enable circuit; wherein the device chip-select enable address is used for the board communicating with the master device through a communication bus; the output end of the chip-select enable circuit is connected to the address input end of the memory, and the address, corresponding to the slave device slot which the board is plugged into, is configured as the device chip-select enable address of the board.
A method, comprising: receiving a trigger frame from an access point, in the following also referred to as AP, with the trigger frame assigning one or more resource units, in the following also referred to as RUs; and performing a transmission using the assigned one or more RUs corresponding to one or more subchannels of a plurality of subchannels responsive to receiving the trigger frame, wherein the one or more subchannels comprise a subset of the plurality of subchannels in an event that at least one subchannel of the plurality of subchannels is detected as being busy; characterized in that the performing of the transmission using the assigned one or more RUs comprises performing the transmission with RU downsizing by transmitting a trigger-based, in the following also referred to as TB, physical-layer protocol data unit, in the following also referred to as PPDU, to the AP on a downsized RU, wherein the downsized RU is smaller than a size of the assigned one or more RUs responsive to the at least one subchannel being detected as being busy. receiving a trigger frame from an access point, in the following also referred to as AP, with the trigger frame assigning one or more resource units, in the following also referred to as RUs; and performing a transmission using the assigned one or more RUs corresponding to one or more subchannels of a plurality of subchannels responsive to receiving the trigger frame, wherein the one or more subchannels comprise a subset of the plurality of subchannels in an event that at least one subchannel of the plurality of subchannels is detected as being busy; characterized in that the performing of the transmission using the assigned one or more RUs comprises performing the transmission with RU downsizing by transmitting a trigger-based, in the following also referred to as TB, physical-layer protocol data unit, in the following also referred to as PPDU, to the AP on a downsized RU, wherein the downsized RU is smaller than a size of the assigned one or more RUs responsive to the at least one subchannel being detected as being busy.
A method for transmitting control information of uplink, UL, Multiple Input Multiple Output, MIMO, transmission by a base station, BS, the method comprising: transmitting downlink control information, DCI, to a user equipment, UE, through a physical downlink control channel, PDCCH, scheduling UL transmission of a plurality of transport blocks, TBs, receiving the plurality of TBs scheduled by the DCI from the UE using a plurality of layers; transmitting information indicating acknowledgement, ACK, or negative acknowledgement, NACK, of each of the received TBs to the UE through a first physical hybrid-automatic repeat request indicator channel, PHICH; and receiving retransmission of a negative-acknowledged transport block, NACK TB, from the UE using at least one layer, characterized in that if the number of NACK TBs is different from the number of TBs indicated by the PDCCH, the at least one layer is identical to a layer used in previous transmission of the NACK TB, wherein: the DCI includes a cyclic shift, CS, index for a demodulation reference signal, DMRS, a DMRS for each of the plurality of layers corresponding to the plurality of TBs is transmitted by the UE, wherein the DMRS for each layer is assigned a distinctive CS index, and a DMRS for each of the at least one layer corresponding to the NACK TB is transmitted by the UE and the CS index allocated to the DMRS of the at least one layer is identical to a CS index allocated to a DMRS for a layer used in previous transmission of the NACK TB. transmitting downlink control information, DCI, to a user equipment, UE, through a physical downlink control channel, PDCCH, scheduling UL transmission of a plurality of transport blocks, TBs, receiving the plurality of TBs scheduled by the DCI from the UE using a plurality of layers; transmitting information indicating acknowledgement, ACK, or negative acknowledgement, NACK, of each of the received TBs to the UE through a first physical hybrid-automatic repeat request indicator channel, PHICH; and receiving retransmission of a negative-acknowledged transport block, NACK TB, from the UE using at least one layer, characterized in that if the number of NACK TBs is different from the number of TBs indicated by the PDCCH, the at least one layer is identical to a layer used in previous transmission of the NACK TB, the DCI includes a cyclic shift, CS, index for a demodulation reference signal, DMRS, a DMRS for each of the plurality of layers corresponding to the plurality of TBs is transmitted by the UE, wherein the DMRS for each layer is assigned a distinctive CS index, and a DMRS for each of the at least one layer corresponding to the NACK TB is transmitted by the UE and the CS index allocated to the DMRS of the at least one layer is identical to a CS index allocated to a DMRS for a layer used in previous transmission of the NACK TB.
A vapor distributor for placement in an internal region of a mass transfer column to receive and upwardly redistribute a vapor stream when it is introduced into the internal region through a radial inlet in a shell of the mass transfer column, said vapor distributor comprising: a plurality of elongated deflectors arranged in an array and each having a non-circular cross section; and at least two braces that extend longitudinally across the array of deflectors and are positioned in spaced apart relationship to each other to hold the deflectors in spaced apart and side-by-side relationship to each other, wherein each of said deflectors comprises a deflecting surface and wherein the deflecting surfaces face in a common direction toward the radial inlet when the vapor distributor is placed in the internal region of the mass transfer column, wherein each of the braces includes a strut extending upwardly above the array of deflectors and wherein at least one of the struts extends upwardly in a direction that diverges from another of the struts. a plurality of elongated deflectors arranged in an array and each having a non-circular cross section; and at least two braces that extend longitudinally across the array of deflectors and are positioned in spaced apart relationship to each other to hold the deflectors in spaced apart and side-by-side relationship to each other, wherein each of said deflectors comprises a deflecting surface and wherein the deflecting surfaces face in a common direction toward the radial inlet when the vapor distributor is placed in the internal region of the mass transfer column, wherein each of the braces includes a strut extending upwardly above the array of deflectors and wherein at least one of the struts extends upwardly in a direction that diverges from another of the struts.
A molten glass stirrer comprising: a shaft; and a spiral agitating blade fixed around the shaft, wherein the spiral agitating blade is provided with openings (20A-D or 21A-D) passing through the agitating blade, wherein the openings (20A-D or 21 A-D) are located in a radial direction with the shaft being a center, and wherein the openings have an elongated rectangular shape whose longitudinal direction corresponds to the radial direction (20A-D), or the openings have an axisymmetric boomerang shape whose symmetry axis corresponds to a vertical direction to the radial direction (21A-D). wherein the spiral agitating blade is provided with openings (20A-D or 21A-D) passing through the agitating blade, wherein the openings (20A-D or 21 A-D) are located in a radial direction with the shaft being a center, and wherein the openings have an elongated rectangular shape whose longitudinal direction corresponds to the radial direction (20A-D), or the openings have an axisymmetric boomerang shape whose symmetry axis corresponds to a vertical direction to the radial direction (21A-D).
Nucleic acid aptamer binding specifically to STAT5, preferably to STAT5B, said aptamer being caracterised in that it comprises the sequence SEQ ID NO: 1, SEQ ID NO: 2 or SEQ ID NO: 57, or a variant having at least 90% of sequence identity with SEQ ID NO: 1, SEQ ID NO: 2 or SEQ ID NO: 57.
A compound having the following structure: or a pharmaceutically acceptable salt or stereoisomer thereof, wherein: R 1 and R 2 are each independently C 6 -C 24 alkyl or C 6 -C 24 alkenyl; R 3 is OR 5, CN, -C(=O)OR 4, -OC(=O)R 4 or -NR 5 C(=O)R 4; R 4 is C 1 -C 12 alkyl; R 5 is H or C 1 -C 6 alkyl; R 6 is, at each occurrence, H; n is an integer ranging from 2 to 12; and y and z are each independently an integer ranging from 6 to 9. R 1 and R 2 are each independently C 6 -C 24 alkyl or C 6 -C 24 alkenyl; R 3 is OR 5, CN, -C(=O)OR 4, -OC(=O)R 4 or -NR 5 C(=O)R 4; R 4 is C 1 -C 12 alkyl; R 5 is H or C 1 -C 6 alkyl; R 6 is, at each occurrence, H; n is an integer ranging from 2 to 12; and y and z are each independently an integer ranging from 6 to 9.
A low-Cr ferritic stainless steel with excellent vibration attenuation ability, the ferritic stainless steel comprising, in percent % by weight of the entire composition, C: 0.005 to 0.01%, N: 0.005 to 0.01%, Si: 0.1 to 0.9%, Mn: 0.1 to 0.9%, Cr: 9 to 14%, Ni: 0.3% or less, P: 0.04% or less, S: 0.002% or less, Ti: 0.15 to 0.3%, Nb: 0.15 to 0.3%, Cu: 0.15 to 0.3%, Al: 0.01 to 0.05%, the remainder of iron (Fe) and other inevitable impurities; wherein the content of C + N is less than or equal to 0.02%; wherein the ferritic stainless steel comprises 5×10 2 / mm 2 or more of Nb laves phase precipitates and Cu precipitates, measured with a method as of description, and wherein a vibration attenuation index (Q-1) of the stainless steel is 2.0×10 -4 or more at 25°C, 2.5×10 -4 or more at at 300°C, measured with the method as of description, wherein the ferritic stainless steel satisfies the following Equation Nb + Cu / Ti ≥ 1.5 Nb, Cu, Ti mean the content % by weight of each element, wherein the ferritic stainless steel satisfies the following Equation Nb + Cu ≤ 0.5 Nb, Cu mean the content % by weight) of each element wherein the Nb Laves phase precipitate is Fe 2 Nb, and the size of the Nb Laves phase precipitate and the Cu precipitate is 1 to 200nm. wherein the content of C + N is less than or equal to 0.02%; wherein the ferritic stainless steel comprises 5×10 2 / mm 2 or more of Nb laves phase precipitates and Cu precipitates, measured with a method as of description, and wherein a vibration attenuation index (Q-1) of the stainless steel is 2.0×10 -4 or more at 25°C, 2.5×10 -4 or more at at 300°C, measured with the method as of description, wherein the ferritic stainless steel satisfies the following Equation Nb + Cu / Ti ≥ 1.5 Nb, Cu, Ti mean the content % by weight of each element, wherein the ferritic stainless steel satisfies the following Equation Nb + Cu ≤ 0.5 Nb, Cu mean the content % by weight) of each element wherein the Nb Laves phase precipitate is Fe 2 Nb, and the size of the Nb Laves phase precipitate and the Cu precipitate is 1 to 200nm.
A method of detecting the presence of a Herpes Simplex Virus type 2 (HSV-2) target sequence in a sample comprising: (a) amplifying, via a Strand Displacement Amplification reaction, the HSV-2 target sequence in the sample by using a first amplification primer comprising a HSV-2 target binding sequence consisting of the HSV-2 target binding sequence in SEQ ID NO: 38 and a restriction enzyme recognition site, wherein the HSV-2 target binding sequence in SEQ ID NO:38 is CTGTTCTGGTTCCTA, and by using a second amplification primer comprising a HSV-2 target binding sequence consisting of a target binding sequence in SEQ ID NO: 43 and a restriction enzyme recognition site, wherein the HSV-2 target binding sequence in SEQ ID NO: 43 is CCGTGTGGATGGT; and (b) detecting the amplified HSV-2 target sequences. (a) amplifying, via a Strand Displacement Amplification reaction, the HSV-2 target sequence in the sample by using a first amplification primer comprising a HSV-2 target binding sequence consisting of the HSV-2 target binding sequence in SEQ ID NO: 38 and a restriction enzyme recognition site, wherein the HSV-2 target binding sequence in SEQ ID NO:38 is CTGTTCTGGTTCCTA, and by using a second amplification primer comprising a HSV-2 target binding sequence consisting of a target binding sequence in SEQ ID NO: 43 and a restriction enzyme recognition site, wherein the HSV-2 target binding sequence in SEQ ID NO: 43 is CCGTGTGGATGGT; and (b) detecting the amplified HSV-2 target sequences.
A pulp suitable for the production of lyocell moldings, having a proportion of cellulose from 85 to 50% by weight and a proportion of hemicelluloses of at least 7% by weight, characterized in that the ratio of the C5/xylan fraction to the C6/mannan fraction present in the hemicellulose (C5/C6 ratio) is in the range from 125:1 to 1:3.