mhurhangee/ep-ind-claims huggingface dataset:
A method for network diagnosis processing, characterized by comprising: receiving, by a first network tunnel source end, at a first network layer of the first network tunnel source end, a network diagnosis instruction sent by an instruction center; sending, by the first network tunnel source end, at the first network layer of the first network tunnel source end, a diagnosis message carrying a characteristic information to a first network layer of a first network tunnel peer end and a second network layer of the first network tunnel source end, wherein the characteristic information is carried in a diagnosis result reported by the first network tunnel peer end at the first network layer of the first network tunnel peer end to the instruction center; and sending, by the first network tunnel source end, at the second network layer of the first network tunnel source end, the diagnosis message to a second network layer of the first network tunnel peer end, wherein the characteristic information is carried in a diagnosis result reported by the first network tunnel peer end at the second network layer of the first network tunnel peer end to the instruction center, and wherein the characteristic information is used to achieve association of diagnosis results among various network layers and various network management domains. receiving, by a first network tunnel source end, at a first network layer of the first network tunnel source end, a network diagnosis instruction sent by an instruction center; sending, by the first network tunnel source end, at the first network layer of the first network tunnel source end, a diagnosis message carrying a characteristic information to a first network layer of a first network tunnel peer end and a second network layer of the first network tunnel source end, wherein the characteristic information is carried in a diagnosis result reported by the first network tunnel peer end at the first network layer of the first network tunnel peer end to the instruction center; and sending, by the first network tunnel source end, at the second network layer of the first network tunnel source end, the diagnosis message to a second network layer of the first network tunnel peer end, wherein the characteristic information is carried in a diagnosis result reported by the first network tunnel peer end at the second network layer of the first network tunnel peer end to the instruction center, and wherein the characteristic information is used to achieve association of diagnosis results among various network layers and various network management domains.
An isolated polynucleotide encoding a polypeptide comprising an anti-CD19 chimeric antigen receptor that is at least 70% identical to SEQ ID NO: 9, wherein the polypeptide does not comprise a rituximab binding site, and wherein the polynucleotide comprises a short EF1a promoter that is capable of expressing the anti-CD19 chimeric antigen receptor in a mammalian T cell, wherein the short EF1a promoter does not comprise the nucleic acid sequence of SEQ ID NO: 39, and the promoter comprises the nucleic acid sequence of SEQ ID NO: 16. the short EF1a promoter does not comprise the nucleic acid sequence of SEQ ID NO: 39, and the promoter comprises the nucleic acid sequence of SEQ ID NO: 16.
Control device for controlling a lamp with - a signal input, - a signal output, and - a signal processing device, wherein - the signal input is set up to receive a serial input signal of length N, - the signal processing device is set up to shorten the input signal by a control signal of length n with n ≤ N, - the signal output is set up to output an output signal, which comprises the input signal shortened by the control signal, and - the signal processing device comprises a UART and a switching element, - the UART is set up to switch the switching element when receiving the control signal so that the switching element shortens the input signal by the control signal, - the control device comprises a capture/compare unit which is set up to determine the duration of a break signal in the input signal, - the UART is set up to detect the break signal in the input signal, the break signal indicating the beginning of the control signal, characterized in that - the control device is set up to determine the protocol used to transmit the input signal from the duration of the break signal in the input signal. - a signal input, - a signal output, and - a signal processing device, wherein - the signal input is set up to receive a serial input signal of length N, - the signal processing device is set up to shorten the input signal by a control signal of length n with n ≤ N, - the signal output is set up to output an output signal, which comprises the input signal shortened by the control signal, and - the signal processing device comprises a UART and a switching element, - the UART is set up to switch the switching element when receiving the control signal so that the switching element shortens the input signal by the control signal, - the control device comprises a capture/compare unit which is set up to determine the duration of a break signal in the input signal, - the UART is set up to detect the break signal in the input signal, the break signal indicating the beginning of the control signal, characterized in that - the control device is set up to determine the protocol used to transmit the input signal from the duration of the break signal in the input signal.
A brake control system that is configured for use with an aircraft, comprising: a brake control unit comprising a processor; and a tangible, non-transitory memory configured to communicate with the processor, the tangible, non-transitory memory having instructions stored thereon that, in response to execution by the processor, cause the brake control unit to perform operations comprising: receiving an axle acceleration signal indicative of an axle acceleration from an accelerometer; characterised by decreasing a braking command pressure in response to the axle acceleration being greater than a threshold acceleration value; and by determining whether an aircraft speed is less than a threshold speed value; and determining whether the axle acceleration is greater than the threshold acceleration value, in response to the aircraft speed being less than the threshold speed value. a brake control unit comprising a processor; and a tangible, non-transitory memory configured to communicate with the processor, the tangible, non-transitory memory having instructions stored thereon that, in response to execution by the processor, cause the brake control unit to perform operations comprising: receiving an axle acceleration signal indicative of an axle acceleration from an accelerometer; characterised by decreasing a braking command pressure in response to the axle acceleration being greater than a threshold acceleration value; and by determining whether an aircraft speed is less than a threshold speed value; and determining whether the axle acceleration is greater than the threshold acceleration value, in response to the aircraft speed being less than the threshold speed value. receiving an axle acceleration signal indicative of an axle acceleration from an accelerometer; characterised by decreasing a braking command pressure in response to the axle acceleration being greater than a threshold acceleration value; and by determining whether an aircraft speed is less than a threshold speed value; and determining whether the axle acceleration is greater than the threshold acceleration value, in response to the aircraft speed being less than the threshold speed value.
Electronic key for the wireless operation of a lock, in particular a motor vehicle lock, having a housing shell for the at least partial accommodation of electronic switching circuitry for the wireless operation of the lock, the housing shell having a battery compartment for the accommodation of a battery for supplying power to the electronic switching circuitry, a battery compartment cover for covering the battery accommodated in the battery compartment, an emergency key, with a key stem that is insertable into the housing shell, for the mechanical operation of the lock, the key stem being movable between an insertion position in which the key stem is located on a key shaft of the housing shell, and an end position in which the key stem is securely accommodated in the key shaft, and a seal, arranged between the housing shell and the battery compartment cover, for protecting the battery against environmental influences, the battery compartment cover having a bearing surface for direct contact on the key stem and the key stem in the end position exerting a pressure force through the bearing surface of the battery compartment cover on the seal, characterized in that the key stem is shaped in such a way that the force that can be exerted on the bearing surface of the battery compartment cover by the key stem is increased between the insertion position and the end position.
Method for cooling a gas turbine (10; 10a-c), which comprises a turbine (15; 15a-c), wherein a rotor (11; 11a-c), which rotates about a machine axis, carries a plurality of rotating blades (17; 17a-c; 26a,b), which are mounted on said rotor (11; 11a-c) by means of blade roots and extend with their airfoils into a hot gas path of said gas turbine (10; 10a-c), wherein said rotor (11; 11a-c) is concentrically surrounded by a turbine vane carrier (13; 13a,b) carrying a plurality of stationary vanes (16; 16a,b), whereby said rotating blades (17; 17a-c; 26a,b) and said stationary vanes (16; 16a,b) are arranged in alternating rows in axial direction, first and second cooling systems (A, B) being provided for said turbine (15; 15a-c), whereby said first cooling system uses cooling air of a first pressure and first temperature and said second cooling system uses cooling air of a second pressure and second temperature substantially smaller than said first pressure and first temperature, wherein said first cooling system is used to cool the airfoils of said rotating blades (17; 17a-c; 26a,b) and said turbine vane carrier (13; 13a,b) and said stationary vanes (16; 16a,b), whereby said second cooling system is used to cool said rotor (11; 11a-c) and said blade roots of said rotating blades (17; 17a-c; 26a,b) in at least one row of said rotating blades (17; 17a-c; 26a,b), wherein said second cooling system is isolated through high pressure seals from said first cooling system and the hot gas path through the turbine (15; 15a-c), wherein, in the rotating blades (17; 17a-c; 26a,b) of said at least one row of rotating blades (17; 17a-c; 26a,b), the cooling air of the first pressure and first temperature from said first cooling system is introduced below blade platforms of the rotating blades (17; 17a-c; 26a,b), enters the airfoils, exits the rotating blades (17; 17a-c; 26a,b) as leakage air and is used for film cooling and fir trees forming the blade roots receive the cooling air of the second pressure and second temperature from said second cooling system through a low pressure cooling air channel, the cooling air of the second pressure and second temperature exiting through cooling air vents, characterized in that the gas turbine (10; 10a-c) comprises a heat shield attached to the rotor (11; 11a-c) by a heat shield fir tree before said at least one row of rotating blades (17; 17a-c; 26a,b) of the turbine (15; 15a-c) and comprising a triangular body with a slant, the triangular body containing a first flow path for the cooling air of the first pressure and first temperature and a second flow path for the cooling air of the second pressure and second temperature, wherein the heat shield fir tree is axially divided into a first part and a second part, which are separated by a gap, wherein the cooling air of the first pressure and first temperature is directed for the airfoil cooling by the first flow path through an entrance in the first part of the heat shield fir tree and the cooling air of the second pressure and second temperature enters the second flow path through the gap.
A secondary battery comprising: a cathode; an anode; and an electrolytic solution, wherein the cathode contains an active material capable of inserting and extracting an electrode reactant, and a ratio IS/IF of a peak intensity IS derived from SO 2 - and a peak intensity IF derived from LiF 2 - is 0.04 or more, the peak intensity IS and the peak intensity IF being obtained by negative ion analysis on the active material with use of time-of-flight secondary ion mass spectrometry, wherein the active material includes a central section and a coating section, the central section being capable of inserting and extracting the electrode reactant, and the coating section being provided on the central section, and the coating section contains a compound having a sulfonyl group (>SO 2) and a nitrogen bond (>N-), wherein the compound having the sulfonyl group contains one or more of compounds represented by the following formulas and, where each of R1 to R4 is one of a hydrogen group, a hydrocarbon group, an oxygen-containing hydrocarbon group, a halogen group, a halogenated hydrocarbon group, a halogenated oxygen-containing hydrocarbon group, and a group obtained by binding two or more thereof, and any two or more of R1 to R4 are optionally bound to one another, and where each of R5 and R6 is one of a hydrogen group, a hydrocarbon group, an oxygen-containing hydrocarbon group, a halogen group, a halogenated hydrocarbon group, a halogenated oxygen-containing hydrocarbon group, and a group obtained by binding two or more thereof, or where R5 and R6 are bound to each other, and M is a metal element. a cathode; an anode; and an electrolytic solution, wherein the cathode contains an active material capable of inserting and extracting an electrode reactant, and a ratio IS/IF of a peak intensity IS derived from SO 2 - and a peak intensity IF derived from LiF 2 - is 0.04 or more, the peak intensity IS and the peak intensity IF being obtained by negative ion analysis on the active material with use of time-of-flight secondary ion mass spectrometry, wherein the active material includes a central section and a coating section, the central section being capable of inserting and extracting the electrode reactant, and the coating section being provided on the central section, and the coating section contains a compound having a sulfonyl group (>SO 2) and a nitrogen bond (>N-), wherein the compound having the sulfonyl group contains one or more of compounds represented by the following formulas and, where each of R1 to R4 is one of a hydrogen group, a hydrocarbon group, an oxygen-containing hydrocarbon group, a halogen group, a halogenated hydrocarbon group, a halogenated oxygen-containing hydrocarbon group, and a group obtained by binding two or more thereof, and any two or more of R1 to R4 are optionally bound to one another, and where each of R5 and R6 is one of a hydrogen group, a hydrocarbon group, an oxygen-containing hydrocarbon group, a halogen group, a halogenated hydrocarbon group, a halogenated oxygen-containing hydrocarbon group, and a group obtained by binding two or more thereof, or where R5 and R6 are bound to each other, and M is a metal element.
Battery assembly consisting of a plurality of battery cells which are electrically connected to one another by cell connectors which are arranged on a top side of a cell housing, wherein each cell housing has, on a cell base, at least one fastening projection which protrudes through an opening of a cooling element which is formed as a cooling plate or as a cooling housing for the cell housings, wherein the fastening projection interacts with a clamping element which clamps the cell housing against the cooling element, characterized in that the cell base is designed in a manner additionally electrically insulated from the cooling element, wherein the cooling element consists of metal, and wherein the fastening projection and the clamping element consist of metal, and in that a second insulating element, designed to provide electrical insulation between the fastening projection and the cooling element, is arranged between the fastening projection and the cooling element.
A hand held power tool for delivering a torque to a joint, which power tool comprises a housing that houses: - a motor arranged to drive an input shaft; - an output shaft arranged to provide a torque to the joint; and - a planetary gear connecting said input shaft to said output shaft, the planetary gear comprising a sun wheel and a rim gear, and at least one planet wheel arranged between the sun wheel and the rim gear, the at least one planet wheel being arranged on a planet wheel carrier; wherein the input shaft is connected to said sun wheel for driving said output shaft via said planetary gear, the output shaft being connected to said planet wheel carrier; characterised in that a flywheel is arranged to rotate freely with respect to the housing, which flywheel may be set to rotate; and in that a cam block is loosely fitted inside the housing, which cam block is rotatively connected to the rim gear and connected to the housing via an interacting between a cam profile and a cam follower, wherein said cam profile is inclined such that the interaction between the cam follower and the cam profile will provide an axial movement to the cam block when it is rotated with respect to the housing, such that the cam block will be forced into contact with the flywheel as a result of said rotation. - a motor arranged to drive an input shaft; - an output shaft arranged to provide a torque to the joint; and - a planetary gear connecting said input shaft to said output shaft, the planetary gear comprising a sun wheel and a rim gear, and at least one planet wheel arranged between the sun wheel and the rim gear, the at least one planet wheel being arranged on a planet wheel carrier; wherein the input shaft is connected to said sun wheel for driving said output shaft via said planetary gear, the output shaft being connected to said planet wheel carrier; characterised in that a flywheel is arranged to rotate freely with respect to the housing, which flywheel may be set to rotate; and in that a cam block is loosely fitted inside the housing, which cam block is rotatively connected to the rim gear and connected to the housing via an interacting between a cam profile and a cam follower, wherein said cam profile is inclined such that the interaction between the cam follower and the cam profile will provide an axial movement to the cam block when it is rotated with respect to the housing, such that the cam block will be forced into contact with the flywheel as a result of said rotation.
Exhaust hood with a fan housing and a fitting part as a fastening device for installation in a wall cupboard, wherein a frame element is used as the fitting part for connecting the exhaust hood to the wall cupboard, wherein the frame element comprises two first frame sections with a vertical bearing surface for bearing and fastening to a side wall of the wall cupboard and a second frame section, which overlaps the fan housing in the installation position of the exhaust hood in certain regions and which forms a horizontal bearing surface for bearing against the fan housing and/or a base of the wall cupboard, as well as two obliquely extending connecting sections, wherein the two first frame sections are connected to the second frame section, the two connecting sections are arranged mirror-symmetrically with respect to one another in each case between the first frame section and the second frame section, the exhaust hood is hooked into the frame element with two hooks, a hook receiver is formed on the frame element in each of the two connecting sections, a hook corresponding to the hook receiver is arranged on the fan housing and the hook has an end region which engages through the hook receiver, and wherein the hook receivers are formed between the first and second frame sections (6, 8).
A surface-coated cutting tool comprising: a base material; and a coating film formed on said base material, said coating film including at least one TiB 2 layer, said TiB 2 layer including Cl together with TiB 2, and assuming that in said TiB 2 layer, a first region represents a region having a thickness of 0.5 μm from an interface on said base material side, and a second region represents a region having a thickness of 0.5 μm from an interface on said coating film surface side, an atomic ratio Cl/(Ti+Cl) between Ti and Cl being higher in said second region than in said first region. a base material; and a coating film formed on said base material, said coating film including at least one TiB 2 layer, said TiB 2 layer including Cl together with TiB 2, and assuming that in said TiB 2 layer, a first region represents a region having a thickness of 0.5 μm from an interface on said base material side, and a second region represents a region having a thickness of 0.5 μm from an interface on said coating film surface side, an atomic ratio Cl/(Ti+Cl) between Ti and Cl being higher in said second region than in said first region.
A method of forming a higher order data unit of an asynchronous network, comprising payload data and overhead data, from a plurality of lower order data units (20,22,24), comprising the step of: forming the payload of the higher order data unit by combining the plurality of lower order data units (20,22,24); and characterised by forming the overhead data of the higher order data unit including clock quality information (20c,22c,24c) relating to clocks associated with the plurality of lower order data units. forming the payload of the higher order data unit by combining the plurality of lower order data units (20,22,24); and characterised by forming the overhead data of the higher order data unit including clock quality information (20c,22c,24c) relating to clocks associated with the plurality of lower order data units.
Method for manufacturing a gas fired radiant emitter with increased emissivity, comprising the steps of - providing a porous ceramic burner deck (5a, 5b), - applying a wet coating layer on said porous ceramic burner deck (5a, 5b), wherein said wet coating layer comprises ceramic particles and/or metallic particles, that will form a coating layer with increased emissivity compared to the porous ceramic burner deck (5a, 5b) without the coating layer; wherein sintering and/or curing of said coating layer is performed by operating said gas fired radiant emitter in which the porous ceramic burner deck (5a, 5b) is mounted, via supplying combustible gas to said radiant emitter and igniting said combustible gas after it has flown through the porous ceramic burner deck (5a, 5b), whereby the uncured and/or unsintered coating layer is transformed into a sintered and/or cured coating layer adhering to said porous ceramic burner deck (5a, 5b) via sintered and/or cured bonds. - providing a porous ceramic burner deck (5a, 5b), - applying a wet coating layer on said porous ceramic burner deck (5a, 5b), wherein said wet coating layer comprises ceramic particles and/or metallic particles, that will form a coating layer with increased emissivity compared to the porous ceramic burner deck (5a, 5b) without the coating layer;