mhurhangee/ep-ind-claims huggingface dataset:
A method for transmission using an interface, applied to an interface variable device, wherein the method comprises the following steps performed by the interface variable device: obtaining a byte block stream, wherein byte blocks in the byte block stream are of a predetermined byte length; determining (902, 1202) a timeslot size of timeslots and a quantity of timeslots in one timeslot period based on a transmission rate requirement of an interface type configured for the interface; mapping (802, 903, 1203) the byte block stream to corresponding timeslots based on the determined timeslot size and quantity of timeslots, wherein each timeslot corresponds to one byte block; distributing (803, 904, 1204) the byte block stream mapped to the timeslots; processing the distributed byte block stream based on the interface type configured for the interface, wherein the processing comprises: determining (905, 1205) overhead information and an overhead block format based on the interface type, wherein the overhead information is used to indicate an insertion interval of an overhead block and a quantity of overhead blocks to be inserted each time, and performing overhead processing on the distributed byte block stream based on the overhead information and the overhead block format; and sending (805, 907, 1207) the processed byte block stream. wherein the method comprises the following steps performed by the interface variable device: obtaining a byte block stream, wherein byte blocks in the byte block stream are of a predetermined byte length; determining (902, 1202) a timeslot size of timeslots and a quantity of timeslots in one timeslot period based on a transmission rate requirement of an interface type configured for the interface; mapping (802, 903, 1203) the byte block stream to corresponding timeslots based on the determined timeslot size and quantity of timeslots, wherein each timeslot corresponds to one byte block; distributing (803, 904, 1204) the byte block stream mapped to the timeslots; processing the distributed byte block stream based on the interface type configured for the interface, wherein the processing comprises: determining (905, 1205) overhead information and an overhead block format based on the interface type, wherein the overhead information is used to indicate an insertion interval of an overhead block and a quantity of overhead blocks to be inserted each time, and performing overhead processing on the distributed byte block stream based on the overhead information and the overhead block format; and sending (805, 907, 1207) the processed byte block stream.
A refuse collection vehicle having a loading opening preferably arranged at the rear and having at least one running board for a refuse collector arranged in the rear region, wherein at least one grab handle in which a sensor is integrated is arranged above the running board at the refuse collection vehicle, characterized in that the sensor has more than one signal transmitter equipped with an actuable ready display; and in that the sensor is connected to an electronic control that has a random generator via which the individual signal transmitters can be activated.
An accessory that is mountable at a camera body and is in a mounted state capable of communicating with the camera body, comprising: a clock transmission unit that transmits a first clock signal to the camera body; a first transmission unit that transmits to the camera body in synchronization with the first clock signal information pertaining to a drive target member (31, 32) that is driven by a drive unit (33, 35); a clock reception unit that receives a second clock signal from the camera body; a second transmission unit that transmits to the camera body in synchronization with the second clock signal a first value indicating a communication specification according to which the first transmission unit transmits the information to the camera body; a reception unit that receives from the camera body in synchronization with the second clock signal a second value equal to or smaller than the first value, the second value indicating a communication specification according to which the first transmission unit transmits the information to the camera body; and a control unit that engages the first transmission unit to start transmitting the information according to the communication specification indicated by the second value, upon receiving the second value by the reception unit after the first value has been transmitted by the second transmission unit. a clock transmission unit that transmits a first clock signal to the camera body; a first transmission unit that transmits to the camera body in synchronization with the first clock signal information pertaining to a drive target member (31, 32) that is driven by a drive unit (33, 35); a clock reception unit that receives a second clock signal from the camera body; a second transmission unit that transmits to the camera body in synchronization with the second clock signal a first value indicating a communication specification according to which the first transmission unit transmits the information to the camera body; a reception unit that receives from the camera body in synchronization with the second clock signal a second value equal to or smaller than the first value, the second value indicating a communication specification according to which the first transmission unit transmits the information to the camera body; and a control unit that engages the first transmission unit to start transmitting the information according to the communication specification indicated by the second value, upon receiving the second value by the reception unit after the first value has been transmitted by the second transmission unit.
A carbon fiber composite material comprising: a plurality of cell structures with an elastomer surrounded by a first carbon nanofiber and an interface phase thereof; a plurality of cell structure assemblies as assemblies of more than one of the cell structures; and a plurality of tie structures that joins the cell structure assemblies to each other, wherein the tie structures are formed by one or more first carbon nanofibers, one or more second carbon nanofibers, and an elastomer interface phase formed around the one or more first carbon nanofibers and the one or more second carbon nanofibers; wherein the elastomer is fluororubber or nitrile rubber; wherein the first carbon nanofibers and the second carbon nanofibers are selected from carbon nanofibers with an average diameter of 0.5 nm to 6 nm, 9 nm to 40 nm, and 60 nm to 500 nm; wherein the average diameter of the first carbon nanofiber is different from the average diameter of the second carbon nanofiber; and wherein the average diameter of the first carbon nanofibers and the second carbon nanofibers is obtained as the arithmetic mean value of diameters measured at at least 200 points using an electron micrograph with the magnification appropriately varied according to the size of the carbon nanofibers. a plurality of cell structures with an elastomer surrounded by a first carbon nanofiber and an interface phase thereof; a plurality of cell structure assemblies as assemblies of more than one of the cell structures; and a plurality of tie structures that joins the cell structure assemblies to each other, wherein the tie structures are formed by one or more first carbon nanofibers, one or more second carbon nanofibers, and an elastomer interface phase formed around the one or more first carbon nanofibers and the one or more second carbon nanofibers; wherein the elastomer is fluororubber or nitrile rubber; wherein the first carbon nanofibers and the second carbon nanofibers are selected from carbon nanofibers with an average diameter of 0.5 nm to 6 nm, 9 nm to 40 nm, and 60 nm to 500 nm; wherein the average diameter of the first carbon nanofiber is different from the average diameter of the second carbon nanofiber; and wherein the average diameter of the first carbon nanofibers and the second carbon nanofibers is obtained as the arithmetic mean value of diameters measured at at least 200 points using an electron micrograph with the magnification appropriately varied according to the size of the carbon nanofibers.
A method for data transmission, the method comprising: transmitting, by a terminal, uplink data in a grant-free manner; detecting, by the terminal, grant information within a target time window and generating a detection result; and determining, by the terminal, whether to retransmit the uplink data based on the detection result, characterized in that, the grant information is configured to indicate configuration information of a data transmission channel, determining, by the terminal, whether to retransmit the uplink data based on the detection result comprises: determining, by the terminal, to retransmit the uplink data, in response to that the terminal determines the detection result is the grant information is received and that a value of an information domain of the grant information is not equal to a preset value. transmitting, by a terminal, uplink data in a grant-free manner; detecting, by the terminal, grant information within a target time window and generating a detection result; and determining, by the terminal, whether to retransmit the uplink data based on the detection result, characterized in that, the grant information is configured to indicate configuration information of a data transmission channel, determining, by the terminal, whether to retransmit the uplink data based on the detection result comprises: determining, by the terminal, to retransmit the uplink data, in response to that the terminal determines the detection result is the grant information is received and that a value of an information domain of the grant information is not equal to a preset value.
A method of conjugating an oligonucleotide to a polymer, the method comprising: treating a polymer comprising amine functionality with a disuccinimidyl carbonate to form a functionalized polymer; and treating the functionalized polymer with an amine terminated oligonucleotide to form a conjugated polymer including the oligonucleotide in the presence of a polar non-aqueous solvent. treating a polymer comprising amine functionality with a disuccinimidyl carbonate to form a functionalized polymer; and treating the functionalized polymer with an amine terminated oligonucleotide to form a conjugated polymer including the oligonucleotide in the presence of a polar non-aqueous solvent.
Exhaust gas turbine, comprising: - a turbine wheel having a multiplicity of moving blades, - an exhaust-gas outlet duct, which is arranged downstream of the moving blades of the turbine wheel, wherein the exhaust-gas outlet duct is delimited radially on the outside by an axial turbine diffuser and radially on the inside, at least partially, by a spinner, wherein the axial turbine diffuser is formed by a number N>1 of successive conical diffuser segments, wherein an axial diffuser opening angle A between successive diffuser segments is A≥1.0°, wherein a ratio L/H between an axial diffuser segment length L and an entry height H of the exhaust-gas outlet duct is L/H≥0.01, wherein a ratio H/S between the entry height H of the exhaust-gas outlet duct and a maximum radius S of the spinner is H/S≥1.0, wherein the spinner is formed by a number P>1 of successive conical spinner segments, wherein an axial spinner opening angle B between successive spinner segments is B≥1.0°, and wherein a ratio M/H between an axial spinner segment length M and the entry height H of the exhaust-gas outlet duct is M/H≥0.01. - a turbine wheel having a multiplicity of moving blades, - an exhaust-gas outlet duct, which is arranged downstream of the moving blades of the turbine wheel, wherein the exhaust-gas outlet duct is delimited radially on the outside by an axial turbine diffuser and radially on the inside, at least partially, by a spinner, wherein the axial turbine diffuser is formed by a number N>1 of successive conical diffuser segments, wherein an axial diffuser opening angle A between successive diffuser segments is A≥1.0°, wherein a ratio L/H between an axial diffuser segment length L and an entry height H of the exhaust-gas outlet duct is L/H≥0.01, wherein a ratio H/S between the entry height H of the exhaust-gas outlet duct and a maximum radius S of the spinner is H/S≥1.0, wherein the spinner is formed by a number P>1 of successive conical spinner segments, wherein an axial spinner opening angle B between successive spinner segments is B≥1.0°, and wherein a ratio M/H between an axial spinner segment length M and the entry height H of the exhaust-gas outlet duct is M/H≥0.01. wherein the axial turbine diffuser is formed by a number N>1 of successive conical diffuser segments, wherein an axial diffuser opening angle A between successive diffuser segments is A≥1.0°, wherein a ratio L/H between an axial diffuser segment length L and an entry height H of the exhaust-gas outlet duct is L/H≥0.01, wherein a ratio H/S between the entry height H of the exhaust-gas outlet duct and a maximum radius S of the spinner is H/S≥1.0, wherein the spinner is formed by a number P>1 of successive conical spinner segments, wherein an axial spinner opening angle B between successive spinner segments is B≥1.0°, and wherein a ratio M/H between an axial spinner segment length M and the entry height H of the exhaust-gas outlet duct is M/H≥0.01.
A patient interface, such as a nasal cannula, comprising: a body (200, 300, 400, 500) to be positioned upon a user, the body (200, 300, 400, 500) including a pair nasal prongs (230, 330, 430, 502), each nasal prong (230, 330, 430, 502) including a lumen capable of being fluidly connected thereto for fluid communication with a supply of breathable gas, each nasal prong (230, 330, 430, 502) to be in a configuration either inserted into, or to direct a flow of gas toward, the nares of the user's nose, wherein the body (200, 300, 400, 500) includes at least one element (210, 310, 410, 512, 514) responsive to force(s) or movement(s), or both, experienced by at least a first region of the patient interface; and the at least one element (210, 310, 410, 512, 514) comprises at least one outer element on either side of the pair of nasal prongs (230, 330, 430, 502). a body (200, 300, 400, 500) to be positioned upon a user, the body (200, 300, 400, 500) including a pair nasal prongs (230, 330, 430, 502), each nasal prong (230, 330, 430, 502) including a lumen capable of being fluidly connected thereto for fluid communication with a supply of breathable gas, each nasal prong (230, 330, 430, 502) to be in a configuration either inserted into, or to direct a flow of gas toward, the nares of the user's nose, wherein the body (200, 300, 400, 500) includes at least one element (210, 310, 410, 512, 514) responsive to force(s) or movement(s), or both, experienced by at least a first region of the patient interface; and the at least one element (210, 310, 410, 512, 514) comprises at least one outer element on either side of the pair of nasal prongs (230, 330, 430, 502).
A non-aqueous dispersion comprising the dispersion polymerization reaction product of an ethylenically unsaturated monomer and a nonlinear, random, acrylic polymer stabilizer.
Method of treating an aqueous suspension of bleached pulp derived from an alkaline pulping process, said method comprising dewatering and drying said suspension prior to papermaking, wherein the pH of the suspension to be treated ranges from 6.5 to 12, wherein dewatering said suspension by compressing increases the dry content of the pulp resulting in a final dry content of the pulp from 20 to 80 wt% and drying said suspension occurs at a temperature of 200 to 600°C.
Electric handtool, in particular a hammer drill and/or chisel hammer, having a rechargeable-battery-based power supply with at least one rechargeable-battery cell (38, 38a) and a machine housing, having a handle and at least one additional handle, wherein the handle and/or the additional handle are/is used as a receptacle for the at least one rechargeable-battery cell (38, 38a), wherein a plurality of rechargeable-battery cells (38, 38a) are accommodated in the handle and in the additional handle, the rechargeable-battery cells (38, 38a) need not be removed from the machine housing for charging, and in particular need not be removed from the handle and the additional handle for charging, characterized in that the rechargeable-battery cells in the handle are arranged on a first alignment plane which is aligned at an angle W1, which in particular is a right angle, other than zero to a second alignment plane, on which the rechargeable-battery cells in the additional handle are arranged, wherein the rechargeable-battery cells (38, 38a) are lithium-ion rechargeable-battery cells.
A motor-driven machine tool unit such as a multi-axis rotary head, a motor spindle, a turntable or the like with an end portion of a tool and/or workpiece holder, with a stator unit, and a rotor unit comprising at least one rotor shaft rotatable about a rotation axis, wherein the rotor unit comprises at least one first bearing unit arranged in the end region of a tool and/or workpiece holder, and a second bearing unit for bearing the rotor shaft in the stator unit, said second bearing unit being arranged in the opposite end portion, wherein at least one electrical energy transmission unit is provided for transmitting electrical energy between the stator unit and the rotor unit, wherein the electrical energy transmission unit comprises at least two operatively connected coils (13, 14), wherein the electrical energy transmission unit is arranged on the end portion opposite the tool and/or workpiece holder and on the second bearing unit, such that a gap or axial spacing aligned in the direction of the axis of rotation is provided between the two operatively connected coils (13, 14), characterised in that at least one adjustment unit is provided for the axial displacement of at least one of the coils (13, 14) of the electrical energy transmission unit.
A method of operating a plant, comprising: providing a first shift reactor and a second shift reactor; splitting a syngas from a gasification unit or a partial oxidation unit into a first portion and a second portion (102"), and feeding the first portion to the first shift reactor to form a first shift reactor effluent; combining the first shift reactor effluent with the second portion (102") to form a mixed feed stream, and reacting the mixed feed stream in the second shift reactor to form a second shift reactor effluent; wherein the second portion (102") is combined with the first shift reactor effluent in an amount effective to reduce steam consumption in the first and second shift reactors (110,120), wherein the syngas includes carbon monoxide and hydrogen in a molar ratio of at least 2:1, and wherein the first portion has a volume of between 35 vol% to 45 vol% of the syngas. providing a first shift reactor and a second shift reactor; splitting a syngas from a gasification unit or a partial oxidation unit into a first portion and a second portion (102"), and feeding the first portion to the first shift reactor to form a first shift reactor effluent; combining the first shift reactor effluent with the second portion (102") to form a mixed feed stream, and reacting the mixed feed stream in the second shift reactor to form a second shift reactor effluent; wherein the second portion (102") is combined with the first shift reactor effluent in an amount effective to reduce steam consumption in the first and second shift reactors (110,120), wherein the syngas includes carbon monoxide and hydrogen in a molar ratio of at least 2:1, and wherein the first portion has a volume of between 35 vol% to 45 vol% of the syngas.
A device to simulate a surface bleeding, comprising: - A source of a blood liquid, in particular a synthetic blood liquid or a blood liquid having been removed from a human body; - A pump system connected to the source of blood liquid and configured to provide a controlled flow of said blood liquid; - A wound simulator having an open chamber connected to the pump system to receive the controlled flow of blood liquid, wherein the wound simulator comprises a set of interchangeable plates, ∘ each plate having a plurality of holes arranged through said plate according to a specific pattern, wherein the specific pattern is different for each plate of the set of interchangeable plates, and ∘ each plate being adapted to be removably mounted on the wound simulator to close the open chamber, so that blood liquid flows out of the chamber through the holes of the plate mounted on the wound simulator. - A source of a blood liquid, in particular a synthetic blood liquid or a blood liquid having been removed from a human body; - A pump system connected to the source of blood liquid and configured to provide a controlled flow of said blood liquid; - A wound simulator having an open chamber connected to the pump system to receive the controlled flow of blood liquid, wherein the wound simulator comprises a set of interchangeable plates, ∘ each plate having a plurality of holes arranged through said plate according to a specific pattern, wherein the specific pattern is different for each plate of the set of interchangeable plates, and ∘ each plate being adapted to be removably mounted on the wound simulator to close the open chamber, so that blood liquid flows out of the chamber through the holes of the plate mounted on the wound simulator. ∘ each plate having a plurality of holes arranged through said plate according to a specific pattern, wherein the specific pattern is different for each plate of the set of interchangeable plates, and ∘ each plate being adapted to be removably mounted on the wound simulator to close the open chamber, so that blood liquid flows out of the chamber through the holes of the plate mounted on the wound simulator.
Running gear for a rail vehicle, having at least a first pair of wheels or at least a first wheelset, and an active wheel control system or wheelset control system, wherein at least one actuator unit is arranged on the running gear, characterised in that connected operatively parallel to the actuator unit, at least one passive resilient bearing which has increased dynamic stiffness and frequency- and amplitude-dependent static stiffness is arranged with respect to a wheel pair guidance or wheel set guidance, in that the actuator unit, which is under quasi-static load, exerts an actuating function on the position and in particular the orientation of the first pair of wheels or the first wheelset, and in that the resilient bearing couples the first pair of wheels or the first wheelset with a dynamic stiffness.
A distillation equipment for producing sponge titanium, comprising: a heating furnace and a reactor for containing a condensate, wherein a heating furnace cover is arranged above the heating furnace, a reactor cover is arranged above the reactor, the heating furnace cover is connected with the reactor cover by a pipe, a resistance wire is arranged on the pipe, a first lifting device is arranged above the heating furnace cover and a second lifting device is arranged above the reactor cover, a vacuum-pumping pipe is arranged above said reactor cover, and a first metal gasket and a second metal gasket are arranged between the two ends of the pipe and the heating furnace cover and respectively the reactor cover, wherein the first metal gasket has a softening point of 900°C and a melting point of 1000°C, and the second metal gasket has a softening point of 1100°C and a melting point of 1200°C.