mhurhangee/ep-ind-claims huggingface dataset:
A method to be performed at a wireless communication station, STA, the method comprising: generating first and second time-domain streams according to a Single Carrier, SC, Physical layer, PHY, structure, the first and second time domain streams being generated by mapping first and second data sequences to a first interval of the first and second time domain streams and by mapping an encoded repetition of the first and second data sequences to a second interval of the first and second time domain streams; wherein the SC PHY structure comprises a first Guard Interval, GI, sequence mapped to the first interval of the streams and mapped to the second interval of the streams, wherein the GI includes a GI complex sequence of M samples, GI M (n), where the index n=1,...,M and wherein the sequence GI M (n) is a Golay sequence; wherein the first interval of the first time domain stream includes the GI sequence following the first data sequence and a time-inverted complex conjugate of the GI sequence prior to the first data sequence; and transmitting a SC transmission based on the first and second time domain streams (402, 432) in a respective plurality of frequency-domain streams. generating first and second time-domain streams according to a Single Carrier, SC, Physical layer, PHY, structure, the first and second time domain streams being generated by mapping first and second data sequences to a first interval of the first and second time domain streams and by mapping an encoded repetition of the first and second data sequences to a second interval of the first and second time domain streams; wherein the SC PHY structure comprises a first Guard Interval, GI, sequence mapped to the first interval of the streams and mapped to the second interval of the streams, wherein the GI includes a GI complex sequence of M samples, GI M (n), where the index n=1,...,M and wherein the sequence GI M (n) is a Golay sequence; wherein the first interval of the first time domain stream includes the GI sequence following the first data sequence and a time-inverted complex conjugate of the GI sequence prior to the first data sequence; and transmitting a SC transmission based on the first and second time domain streams (402, 432) in a respective plurality of frequency-domain streams.
Integrated and combined door-operating system for a commercial vehicle, having at least one central electronic control unit within an overall system of the commercial vehicle, which control unit makes available and processes a first set of functions of a door-operating control system of the door-operating system, and at least one further electronic control unit (10; 10a, 10b; 12a, 14a, 14b) in a further system part of the overall system, wherein the further system part is responsible for controlling other functions than those of the door-operating system, the at least one further electronic control unit (10; 10a, 10b; 12a, 14a, 14b) differs from the at least one central electronic control unit, wherein control input signals and control output signals relating to the first set of functions of the door-operating system are received by the at least one central electronic control unit from the direction of at least one door of the commercial vehicle and/or are output in the direction of at least one door of the commercial vehicle via a multiplex bus connection, characterized in that a) the at least one further electronic control unit (10; 10a, 10b; 12a, 14a, 14b) makes available and processes, in addition to the other functions of the further system part in respect of power and/or number of connections of free capacitors which are not occupied by the other functions, a second set of functions of the door-operating control system of the door-operating system, and b) control input signals and control output signals relating to the second set of functions are directly received by the at least one further electronic control unit (10; 10a, 10b; 12a, 14a, 14b) from the direction of at least one door of the commercial vehicle and/or are directly output in the direction of at least one door of the commercial vehicle. a) the at least one further electronic control unit (10; 10a, 10b; 12a, 14a, 14b) makes available and processes, in addition to the other functions of the further system part in respect of power and/or number of connections of free capacitors which are not occupied by the other functions, a second set of functions of the door-operating control system of the door-operating system, and b) control input signals and control output signals relating to the second set of functions are directly received by the at least one further electronic control unit (10; 10a, 10b; 12a, 14a, 14b) from the direction of at least one door of the commercial vehicle and/or are directly output in the direction of at least one door of the commercial vehicle.
A compound of the following formula: wherein R 1 and R 2 may be the same or different, and comprise at least one group selected from the group consisting of C 1 -C 6 alkyl.
A computer implemented method for maintaining spatial stability of a sound field comprising: calculating balance gains for two or more microphone signals 118, where each of the two or more microphone signals is from a corresponding one of two or more microphones, the balance gains representing a difference in energy level of two or more microphones and hence an approximate balance of a spatial image of a sound field received by the microphones, and each of the balance gains is for a corresponding one of the microphone signals; calculating one or more signal values for each of the two or more microphone signals, where the one or more signal values comprises one or more of an estimated background noise and a calculated suppression gain; limiting differences between corresponding one or more signal values for each of the two or more microphone signals; and maintaining a spatial stability of the sound field when reproduced in the output sound field, by gain adjusting the two or more microphone signals responsive to the calculated balance gains and the limited one or more signal values for each of the two or more microphone signals. calculating balance gains for two or more microphone signals 118, where each of the two or more microphone signals is from a corresponding one of two or more microphones, the balance gains representing a difference in energy level of two or more microphones and hence an approximate balance of a spatial image of a sound field received by the microphones, and each of the balance gains is for a corresponding one of the microphone signals; calculating one or more signal values for each of the two or more microphone signals, where the one or more signal values comprises one or more of an estimated background noise and a calculated suppression gain; limiting differences between corresponding one or more signal values for each of the two or more microphone signals; and maintaining a spatial stability of the sound field when reproduced in the output sound field, by gain adjusting the two or more microphone signals responsive to the calculated balance gains and the limited one or more signal values for each of the two or more microphone signals.
A method for block based compression of a texture using hardware supported compression formats, comprising: dividing a texture into a plurality of blocks, wherein each block includes data comprising two endpoints (202, 204) wherein the two endpoints are in RGB color-space and the data comprises a plurality of indices representing pixel values on a line between the endpoints; for each block, determining a characteristic of a transform for use with the block; encoding at least one characteristic of the transform into a plurality of bits otherwise available to represent reference component values when upper bits of each of the endpoints (202, 204) are the same, the plurality of bits being upper bits of the endpoints (202, 204); and compressing the block. dividing a texture into a plurality of blocks, wherein each block includes data comprising two endpoints (202, 204) wherein the two endpoints are in RGB color-space and the data comprises a plurality of indices representing pixel values on a line between the endpoints; for each block, determining a characteristic of a transform for use with the block; encoding at least one characteristic of the transform into a plurality of bits otherwise available to represent reference component values when upper bits of each of the endpoints (202, 204) are the same, the plurality of bits being upper bits of the endpoints (202, 204); and compressing the block.
An electronic self-supplied protection device for an automatic circuit breaker, characterized in that it comprises: - a supply device able to draw energy from the stretch of an electrical network that is protected by said circuit-breaker; - a control device, which comprises a first and second microcontroller sections or microcontrollers (31, 32) capable of providing at least two levels of operation, a first level of operation being associated to the function of protection from initial instantaneous short-circuit abbreviation SCinst, preset at the moment of closing said circuit breaker, a second and possible further levels of operation being associated to further protection functions of said protection device; and - a selective interface device comprising a first regulator capable, in a first step, immediately following upon closing of the circuit-breaker, of supplying, using all the energy drawn from the electrical network, said first microcontroller section or microcontroller in order to provide said first level of operation with priority with respect to said second and possible further levels of operation, and comprising second regulator capable, in a subsequently step after a controlled period of time, of supplying said second microcontroller section or microcontroller in order to provide also said second and possible further levels of operation. - a supply device able to draw energy from the stretch of an electrical network that is protected by said circuit-breaker; - a control device, which comprises a first and second microcontroller sections or microcontrollers (31, 32) capable of providing at least two levels of operation, a first level of operation being associated to the function of protection from initial instantaneous short-circuit abbreviation SCinst, preset at the moment of closing said circuit breaker, a second and possible further levels of operation being associated to further protection functions of said protection device; and - a selective interface device comprising a first regulator capable, in a first step, immediately following upon closing of the circuit-breaker, of supplying, using all the energy drawn from the electrical network, said first microcontroller section or microcontroller in order to provide said first level of operation with priority with respect to said second and possible further levels of operation, and comprising second regulator capable, in a subsequently step after a controlled period of time, of supplying said second microcontroller section or microcontroller in order to provide also said second and possible further levels of operation.
A method for operating a user equipment, UE, in a wireless communication system, the method comprising: detecting (S200, S201) downlink control information, DCI, informing bandwidth part, BWP, change in a first slot; and changing a BWP from a first BWP to a second BWP based on the DCI, wherein the DCI informs a time resource for a transmission of a physical uplink shared channel, PUSCH, wherein the UE does not transmit uplink information during a time duration between a specific symbol in the first slot and a start of a second slot indicated by a slot offset value of a time domain resource assignment field in the DCI, and wherein a symbol number of the specific symbol in the first slot is fixed. detecting (S200, S201) downlink control information, DCI, informing bandwidth part, BWP, change in a first slot; and changing a BWP from a first BWP to a second BWP based on the DCI, wherein the DCI informs a time resource for a transmission of a physical uplink shared channel, PUSCH, wherein the UE does not transmit uplink information during a time duration between a specific symbol in the first slot and a start of a second slot indicated by a slot offset value of a time domain resource assignment field in the DCI, and wherein a symbol number of the specific symbol in the first slot is fixed.
A method of channel listening, comprising: determining, by a transmitting device (300, 400, 500, 610), a channel listening type based on indication information, wherein the channel listening type comprises at least one of omni-directional channel listening, directional channel listening, and channel listening free; and performing, by the transmitting device (300, 400, 500, 610), channel occupancy for New Radio unlicensed, NR-U, communication according to the channel listening type; the method is characterized in that the indication information is carried in system information and downlink control information, DCI, for uplink authorization. determining, by a transmitting device (300, 400, 500, 610), a channel listening type based on indication information, wherein the channel listening type comprises at least one of omni-directional channel listening, directional channel listening, and channel listening free; and performing, by the transmitting device (300, 400, 500, 610), channel occupancy for New Radio unlicensed, NR-U, communication according to the channel listening type; the method is characterized in that the indication information is carried in system information and downlink control information, DCI, for uplink authorization.
A slag obtainable from the production of non-ferrous metals by pyrometallurgy comprising, on a dry basis and whereby the presence of a metal is expressed as the total of the metal present as elemental metal and the presence of the metal in an oxidized state, a) at least 25%wt and at most 49%wt of iron, Fe, in its oxide form, b) at most 1.3%wt of copper, Cu, c) at least 24%wt and at most 44%wt of silicon dioxide, SiO 2, and d) at least 2.0%wt and at most 20%wt of calcium oxide, CaO, whereby the slag is rich in iron, as FeO, characterised in that the slag comprises, on the same basis, e) at least 0.10%wt and at most 1.00%wt of zinc, Zn, f) at least 0.10%wt and at most 2.5%wt of magnesium oxide, MgO, g) at least 4.0%wt and at most 12%wt of aluminium oxide, Al 2 O 3, h) at least 0.005%wt and at most 0.100%wt of lead, Pb, and i) at least 1.00%wt of sodium oxide, Na 2 O. a) at least 25%wt and at most 49%wt of iron, Fe, in its oxide form, b) at most 1.3%wt of copper, Cu, c) at least 24%wt and at most 44%wt of silicon dioxide, SiO 2, and d) at least 2.0%wt and at most 20%wt of calcium oxide, CaO, whereby the slag is rich in iron, as FeO, characterised in that the slag comprises, on the same basis, e) at least 0.10%wt and at most 1.00%wt of zinc, Zn, f) at least 0.10%wt and at most 2.5%wt of magnesium oxide, MgO, g) at least 4.0%wt and at most 12%wt of aluminium oxide, Al 2 O 3, h) at least 0.005%wt and at most 0.100%wt of lead, Pb, and i) at least 1.00%wt of sodium oxide, Na 2 O.
Industrial truck having a driver's workstation which comprises a driver's standing platform for a standing operating person and which is arranged on a drive part of the industrial truck, between a battery compartment of a traction battery and a vertical rear wall of the drive part in a longitudinal direction of the industrial truck, wherein the driver's workstation is arranged on the drive part so as to be raisable and lowerable by means of a lifting drive, characterized in that the lifting drive is arranged, so as to be movable in a vertical direction by means of a linear guide, on the drive part, and the lifting drive is supported in the vertical direction on the drive part with the interposition of a spring element.
A magnetic core material for electrophotographic developer, satisfying a value of Expression: a + b × 10 + c + d + e + f, being from 200 to 1,400, when an amount of fluorine ion is denoted by a (ppm), an amount of chlorine ion is denoted by b (ppm), an amount of bromide ion is denoted by c (ppm), an amount of nitrite ion is denoted by d (ppm), an amount of nitrate ion is denoted by e (ppm), and an amount of sulfate ion is denoted by f (ppm), which are measured by combustion ion chromatography as described in the description; and having a pore volume, measured as described in the description, of from 30 to 100 mm 3 /g.
A tee type connector pipe manufacturing method, comprising: a step S-1, in which an oval-shaped molding hole is drilled in the center of a metal plate, and then the metal plate is roll-formed into a tube-shaped straight pipe; a step S-2, settling down a jig pipe, which has a seating place formed in the inner side and a circular-shaped insertion hole formed in the center, in a lower mold; a step S-3, positioning a molding stone, which has a curved outer circumferential surface, into the seating place through the insertion hole; a step S-4, positioning the straight pipe to the outer side of the jig pipe; a step S-5, combining and securing an upper mold with the lower mold; a step S-6, combining the molding stone with a shaft of a press device that has passed through a pass-through hole formed in the upper mold; a step S-7, lifting the shaft to forcibly pass the molding stone through the molding hole to form a molding pipe part, then to form a tee type pipe; and a step S-8, disuniting the upper mold and the lower mold, and separating the tee type pipe from the jig pipe. a metal plate, and then the metal plate is roll-formed into a tube-shaped straight pipe; a step S-2, settling down a jig pipe, which has a seating place formed in the inner side and a circular-shaped insertion hole formed in the center, in a lower mold; a step S-3, positioning a molding stone, which has a curved outer circumferential surface, into the seating place through the insertion hole; a step S-4, positioning the straight pipe to the outer side of the jig pipe; a step S-5, combining and securing an upper mold with the lower mold; a step S-6, combining the molding stone with a shaft of a press device that has passed through a pass-through hole formed in the upper mold; a step S-7, lifting the shaft to forcibly pass the molding stone through the molding hole to form a molding pipe part, then to form a tee type pipe; and a step S-8, disuniting the upper mold and the lower mold, and separating the tee type pipe from the jig pipe. a step S-3, positioning a molding stone, which has a curved outer circumferential surface, into the seating place through the insertion hole; a step S-4, positioning the straight pipe to the outer side of the jig pipe; a step S-5, combining and securing an upper mold with the lower mold; a step S-6, combining the molding stone with a shaft of a press device that has passed through a pass-through hole formed in the upper mold; a step S-7, lifting the shaft to forcibly pass the molding stone through the molding hole to form a molding pipe part, then to form a tee type pipe; and a step S-8, disuniting the upper mold and the lower mold, and separating the tee type pipe from the jig pipe.
A method of controlling a Counter-Rotating Open-Rotor (CROR) comprising: measuring a speed of a first rotor to obtain a measured first rotor speed; measuring a power turbine output speed to obtain a measured power turbine speed (Npt); deriving a speed of a second rotor as a function of the measured first rotor speed and the measured power turbine speed (Npt) to obtain a derived second rotor speed; and controlling a pitch of the first rotor and a pitch of the second rotor in response to the measured speed of the first rotor and the derived speed of the second rotor. measuring a speed of a first rotor to obtain a measured first rotor speed; measuring a power turbine output speed to obtain a measured power turbine speed (Npt); deriving a speed of a second rotor as a function of the measured first rotor speed and the measured power turbine speed (Npt) to obtain a derived second rotor speed; and controlling a pitch of the first rotor and a pitch of the second rotor in response to the measured speed of the first rotor and the derived speed of the second rotor.
Electrolysis device for the electrolytic treatment of liquids, having an anode chamber and a cathode chamber which are separated from one another via an ion exchange membrane, wherein the chambers are provided with at least one inlet opening and one outlet opening for a flowing electrolyte and with at least in each case one electrode, and wherein the inner space of the anode chamber and/or of the cathode chamber are/is subdivided by webs or ribs extending transversely with respect to the electrodes, wherein the webs or ribs are provided at least regionally with holes or cutouts, characterized in that the webs or ribs extend in the height direction of the electrolysis device and comprise, as viewed in the height direction, at least one lower region in which the webs or ribs are free of holes or cutouts.
A composition comprising a recombinant glycoprotein, wherein the recombinant glycoprotein is human β-glucuronidase and has a sialylation content of at least 0.7 mol/mol of the recombinant glycoprotein.
A method of increasing production, stability or activity of a target polypeptide comprising: introducing an antioxidant into a cell by exogenous introduction using a transient infiltration or delivery system to increase the level of antioxidant in the cell, the cell comprising a first heterologous polynucleotide encoding the target polypeptide, wherein the antioxidant is a water soluble or lipophilic antioxidant; and, when the antioxidant is a lipophilic antioxidant, this is added at 10μM to 100μM, or when the antioxidant is vitamin C, this is added at 20mM to 60mM; and wherein the production, stability or activity of the target polypeptide in the cell is increased as compared to production, stability or activity of the target polypeptide in a control cell. introducing an antioxidant into a cell by exogenous introduction using a transient infiltration or delivery system to increase the level of antioxidant in the cell, the cell comprising a first heterologous polynucleotide encoding the target polypeptide, wherein the antioxidant is a water soluble or lipophilic antioxidant; and, when the antioxidant is a lipophilic antioxidant, this is added at 10μM to 100μM, or when the antioxidant is vitamin C, this is added at 20mM to 60mM; and wherein the production, stability or activity of the target polypeptide in the cell is increased as compared to production, stability or activity of the target polypeptide in a control cell.
A method for inactivating at least one of bacteria, mycobacteria and bacterial spores, and fungi on foodstuffs comprising: applying engineered water nanostructures (EWNS) comprising reactive oxygen species to the foodstuffs to inactivate the at least one of bacteria, mycobacteria, bacterial spores, and fungi, wherein the EWNS have an electric charge from about 20 to about 100 e -, and wherein the ROS comprise hydroxide radicals (OH•) and superoxide (O 2 -), wherein the electric charge of the EWNS is determinable as disclosed in the description.