mhurhangee/ep-ind-claims huggingface dataset:
An optoelectronic sensor (1, 110) comprising - a light transmitter for transmitting a light signal (14, 140) through a transmission optics, which is in particular a transmission lens, into a detection zone; - a light receiver (30, 130) for receiving light from the detection zone which is remitted by an object to be detected in the detection zone; and - a reception lens (34, 340) which is arranged upstream of the light receiver (30, 130) and which comprises a main lens, wherein the transmission optics and the reception lens (34, 340) have different optical axes (16, 36), characterized by a correction coating at at least one surface of the main lens (i) which is designed such that the main lens, together with the correction coating, forms an aspherical lens shape for the correction of aberrations at least in a first part region of the reception lens (34, 340); and (ii) which is designed in a second part region of the reception lens in such a manner that light which is incident onto the reception lens (34, 340) in this region is refracted more greatly in the direction of the optical axis of the light transmission system the closer the remitting object is located to the optoelectronic sensor (1, 110) and the correction coating in the second part region is thus formed in such a manner that light which is remitted by an object which is located very close to the optoelectronic sensor (1, 110) is refracted more in the direction of the optical axis of the light transmission system than would have been the case if a correction coating formed in such a manner were not provided in the second part region. - a light transmitter for transmitting a light signal (14, 140) through a transmission optics, which is in particular a transmission lens, into a detection zone; - a light receiver (30, 130) for receiving light from the detection zone which is remitted by an object to be detected in the detection zone; and - a reception lens (34, 340) which is arranged upstream of the light receiver (30, 130) and which comprises a main lens, (i) which is designed such that the main lens, together with the correction coating, forms an aspherical lens shape for the correction of aberrations at least in a first part region of the reception lens (34, 340); and (ii) which is designed in a second part region of the reception lens in such a manner that light which is incident onto the reception lens (34, 340) in this region is refracted more greatly in the direction of the optical axis of the light transmission system the closer the remitting object is located to the optoelectronic sensor (1, 110) and the correction coating in the second part region is thus formed in such a manner that light which is remitted by an object which is located very close to the optoelectronic sensor (1, 110) is refracted more in the direction of the optical axis of the light transmission system than would have been the case if a correction coating formed in such a manner were not provided in the second part region.
A method for installing vortex generator accessories to a suction or pressure side of a wind turbine rotor blade, wherein the vortex generator accessories each have a base portion and at least one protrusion member extending upwardly from the base portion, the method comprising: defining a template with location positions defined thereon for placement of vortex generator accessories; attaching the template to the wind turbine rotor blade such that the location positions are oriented span-wise along the suction or pressure side; marking the location positions through the template onto the suction side or pressure side, wherein the location positions define a leading edge mark and a separate trailing edge mark made through the template for placement of the base portion on the suction or pressure side; completely removing the template from the wind turbine rotor blade; and characterised in that; attaching the vortex generator accessories to the location positions marked on the suction or pressure side of the wind turbine rotor blade by aligning a leading edge and a trailing edge of the vortex generator to the separate leading and trailing edge marks made on the suction side or pressure side. defining a template with location positions defined thereon for placement of vortex generator accessories; attaching the template to the wind turbine rotor blade such that the location positions are oriented span-wise along the suction or pressure side; marking the location positions through the template onto the suction side or pressure side, wherein the location positions define a leading edge mark and a separate trailing edge mark made through the template for placement of the base portion on the suction or pressure side; completely removing the template from the wind turbine rotor blade; and characterised in that; attaching the vortex generator accessories to the location positions marked on the suction or pressure side of the wind turbine rotor blade by aligning a leading edge and a trailing edge of the vortex generator to the separate leading and trailing edge marks made on the suction side or pressure side.
A laser system, comprising: a controller configured to direct a plurality of temporally spaced-apart electrical pulses (A, B. C, D) to a device that optically pumps a lasing medium; and a lasing medium configured to output a quasi-continuous laser pulse in response to the optical pumping, the plurality of temporally spaced-apart electrical pulses including (a) a first electrical pulse configured to excite the lasing medium to an energy level below a lasing threshold of the lasing medium, and (b) multiple second electrical pulses (B, C, D) following the first electrical pulse, wherein the quasi-continuous laser pulse is output in response to the multiple second electrical pulses, wherein the quasi-continuous laser pulse includes a plurality of temporally spaced apart laser pulses having a frequency greater than or equal to about 1 kHz. a controller configured to direct a plurality of temporally spaced-apart electrical pulses (A, B. C, D) to a device that optically pumps a lasing medium; and a lasing medium configured to output a quasi-continuous laser pulse in response to the optical pumping, the plurality of temporally spaced-apart electrical pulses including (a) a first electrical pulse configured to excite the lasing medium to an energy level below a lasing threshold of the lasing medium, and (b) multiple second electrical pulses (B, C, D) following the first electrical pulse, wherein the quasi-continuous laser pulse is output in response to the multiple second electrical pulses, wherein the quasi-continuous laser pulse includes a plurality of temporally spaced apart laser pulses having a frequency greater than or equal to about 1 kHz.
A utility vehicle comprising a plurality of ground-engaging members configured to contact a ground surface; a drivetrain assembly operably coupled to the ground-engaging members; a frame supported by the ground-engaging members and extending along a longitudinal axis of the utility vehicle; a rear support area supported by the frame, the rear support area having a rear seating platform having at least a first seating position; a rear cab frame having an upright position and a folded position, the rear cab frame includes a laterally extending support extending generally width-wise of the vehicle, and longitudinally extending supports (314, 316) extending generally length-wise of the vehicle, characterized in that the longitudinally extending supports fold inwardly against the laterally extending support, and the combination of the laterally extending support and longitudinally extending supports fold rearwardly and downwardly.
A fluid delivery device, comprising: a housing, a fluid vaporizer disposed within the housing and configured to receive fluid and to produce an aerosol mist of liquid particles from the fluid, the housing having an outlet formed therein and positioned such that the fluid vaporizer can eject the aerosol mist from the housing through the outlet, and a pump configured to accelerate the aerosol mist produced by the fluid vaporizer, characterised in that the pump has an inlet port and an outlet port, the pump inlet and outlet ports (41, 42) being positioned adjacent to the outlet in the housing, the pump being configured to draw in and accelerate the aerosol mist after the aerosol mist passes through the outlet in the housing, and the outlet port being configured to expel the aerosol mist therefrom into a path of the aerosol mist ejected from the housing by the fluid vaporizer. a housing, a fluid vaporizer disposed within the housing and configured to receive fluid and to produce an aerosol mist of liquid particles from the fluid, the housing having an outlet formed therein and positioned such that the fluid vaporizer can eject the aerosol mist from the housing through the outlet, and a pump configured to accelerate the aerosol mist produced by the fluid vaporizer, characterised in that the pump has an inlet port and an outlet port, the pump inlet and outlet ports (41, 42) being positioned adjacent to the outlet in the housing, the pump being configured to draw in and accelerate the aerosol mist after the aerosol mist passes through the outlet in the housing, and the outlet port being configured to expel the aerosol mist therefrom into a path of the aerosol mist ejected from the housing by the fluid vaporizer.
Method for estimating an RMS current (I C,rms) of an intermediate-circuit capacitor (C ZWK) for an overall system made up of a battery, an inverter, and an N-phase electric machine, preferably a synchronous machine, wherein, in the overall system, the inverter converts direct-current power received by the battery for supplying the electric machine with N phase currents, and wherein the RMS current (I C,rms) to be estimated of the intermediate-circuit capacitor is calculated according to a calculation specification, to which predefined switching times (t Low,Off, t High,Off) of the N phases of the electric machine, measured phase currents (ISu, ISv, ISw) of N-1 phases or N phases of the electric machine, and a predefined battery direct current (I Batt) are supplied as input variables, characterized in that the calculation specification uses the predefined switching times (t Low,Off, t High,Off) for the determination of interval limits via the calculation specification for time integrals to be calculated, wherein the predefined switching times are used as the interval limits, and wherein, for a respective phase, the calculation specification approximates a time integral of a squared supplied phase current, as a quadratic integral, and/or for two phases, the calculation specification approximates a time integral of a product of the phase currents associated with and supplied to these phases, as a mixed integral, by means of approximation of the respective supplied phase current via a second-order polynomial.
A compressor discharge system (10, 100), operable to control a flow of compressed air to a service line at a system pressure, the system comprising: a compressor operable to produce a flow of compressed air at a discharge pressure at a supply rate; a filter positioned downstream of the compressor and operable to receive the flow of compressed air at about the discharge pressure and discharge the flow of compressed air at a filter pressure; and a control assembly (90, 190) including a variable sized orifice movable between a normally open position and a restricted position wherein the restricted position allows a reduced flow of air through the orifice as compared to the normally open position, and an actuator configured to modulate the orifice between the open position and the restricted position, the variable orifice positioned to receive the flow of compressed air at about the filter pressure and to discharge the flow of compressed air at the system pressure, the control assembly (90, 190) being operable to detect whether the service line is experiencing a discharge rate that exceeds the supply rate from the compressor, the control assembly (90, 190) being operable to move, in response to the detection of the discharge rate exceeding the supply rate from the compressor, the orifice to the restricted position, such that in the restricted position, the pressure drop across the control assembly (90, 190) increases and the discharge rate is reduced to allow continued operation of the air compressor to keep up with demand. a compressor operable to produce a flow of compressed air at a discharge pressure at a supply rate; a filter positioned downstream of the compressor and operable to receive the flow of compressed air at about the discharge pressure and discharge the flow of compressed air at a filter pressure; and a control assembly (90, 190) including a variable sized orifice movable between a normally open position and a restricted position wherein the restricted position allows a reduced flow of air through the orifice as compared to the normally open position, and an actuator configured to modulate the orifice between the open position and the restricted position, the variable orifice positioned to receive the flow of compressed air at about the filter pressure and to discharge the flow of compressed air at the system pressure, the control assembly (90, 190) being operable to detect whether the service line is experiencing a discharge rate that exceeds the supply rate from the compressor, the control assembly (90, 190) being operable to move, in response to the detection of the discharge rate exceeding the supply rate from the compressor, the orifice to the restricted position, such that in the restricted position, the pressure drop across the control assembly (90, 190) increases and the discharge rate is reduced to allow continued operation of the air compressor to keep up with demand.
A rotary claw drill bit comprising: a body having a rearward region for attachment of the bit to a drill string, a bore extending axially through the body; a head provided at a forward end of the body and having an axially extending bore to align with the bore of the body; a plurality of picks mounted at the head, each pick having a cutting tip; the picks including radially inner front picks and radially outermost gauge picks; characterised in that: the head and body are non-integrally formed; a radial separation distance of the tips of each of the front picks from the axis is different; and wherein the bore of the head exits the head as a single opening positioned at the axis of the bit. a body having a rearward region for attachment of the bit to a drill string, a bore extending axially through the body; a head provided at a forward end of the body and having an axially extending bore to align with the bore of the body; a plurality of picks mounted at the head, each pick having a cutting tip; the picks including radially inner front picks and radially outermost gauge picks; characterised in that: the head and body are non-integrally formed; a radial separation distance of the tips of each of the front picks from the axis is different; and wherein the bore of the head exits the head as a single opening positioned at the axis of the bit. the head and body are non-integrally formed; a radial separation distance of the tips of each of the front picks from the axis is different; and wherein the bore of the head exits the head as a single opening positioned at the axis of the bit.
A T cell activating bispecific antigen binding molecule comprising a) an Fc domain composed of a first and a second subunit capable of stable association, b) a first antigen binding moiety specific for CD3 comprising a Fab molecule or a crossover Fab molecule wherein either the variable or the constant regions of the Fab light chain and the Fab heavy chain are exchanged, wherein said Fab molecule or crossover Fab molecule is fused at the C-terminus of the Fab heavy chain to the N-terminus of one of the subunits of the Fc domain; c) a second antigen binding moiety capable of specifically binding to a target cell antigen comprising a single domain variable heavy chain, wherein said single domain variable heavy chain is fused to the N-terminus of one of the subunits of the Fc domain, and d) a third antigen binding moiety capable of specifically binding to a target cell antigen comprising a single domain variable heavy chain wherein said single domain variable heavy chain is fused to the N-terminus of the Fab heavy chain of the first antigen binding moiety; wherein the second and third antigen binding moiety bind to the same target cell antigen. a) an Fc domain composed of a first and a second subunit capable of stable association, b) a first antigen binding moiety specific for CD3 comprising a Fab molecule or a crossover Fab molecule wherein either the variable or the constant regions of the Fab light chain and the Fab heavy chain are exchanged, wherein said Fab molecule or crossover Fab molecule is fused at the C-terminus of the Fab heavy chain to the N-terminus of one of the subunits of the Fc domain; c) a second antigen binding moiety capable of specifically binding to a target cell antigen comprising a single domain variable heavy chain, wherein said single domain variable heavy chain is fused to the N-terminus of one of the subunits of the Fc domain, and d) a third antigen binding moiety capable of specifically binding to a target cell antigen comprising a single domain variable heavy chain wherein said single domain variable heavy chain is fused to the N-terminus of the Fab heavy chain of the first antigen binding moiety;
A catalyst composition, comprising; a first supported catalyst having one or more organic chromium compounds supported on a support; and a second supported catalyst having one or more metallocene compounds supported on a support, wherein the organic chromium compound includes two or more of a group represented by the following Chemical Formula 1 in a molecule, and has a linkage group linking the two or more groups represented by the following Chemical Formula 1 via 4 carbon atoms: wherein * is a part which binds to the linkage group linking the two or more groups, R 1 to R 4 are each independently an alkyl group having 1 to 20 carbon atoms, an alkenyl group having 2 to 20 carbon atoms, an aryl group having 6 to 20 carbon atoms, an arylalkyl group having 7 to 20 carbon atoms, an alkylaryl group having 7 to 20 carbon atoms, or an alkoxyaryl group having 7 to 20 carbon atoms; Y 1, Y 2 and Y 3 are each independently halogen, hydrogen, a hydrocarbyl group having 1 to 10 carbon atoms, or a heterohydrocarbyl group having 1 to 10 carbon atoms, wherein the linkage group linking the two or more groups via 4 carbon atoms is a group selected from the group consisting of the following Chemical Formulae: wherein * is a part which binds to N of Chemical Formula 1, R's are each independently hydrogen or alkyl having 1 to 5 carbon atoms, p is an integer of 1 to 6, q is an integer of 1 to 5, and a plurality of R's binding to one ring are the same as or different from each other. wherein * is a part which binds to the linkage group linking the two or more groups, R 1 to R 4 are each independently an alkyl group having 1 to 20 carbon atoms, an alkenyl group having 2 to 20 carbon atoms, an aryl group having 6 to 20 carbon atoms, an arylalkyl group having 7 to 20 carbon atoms, an alkylaryl group having 7 to 20 carbon atoms, or an alkoxyaryl group having 7 to 20 carbon atoms; Y 1, Y 2 and Y 3 are each independently halogen, hydrogen, a hydrocarbyl group having 1 to 10 carbon atoms, or a heterohydrocarbyl group having 1 to 10 carbon atoms, wherein the linkage group linking the two or more groups via 4 carbon atoms is a group selected from the group consisting of the following Chemical Formulae: wherein * is a part which binds to N of Chemical Formula 1, R's are each independently hydrogen or alkyl having 1 to 5 carbon atoms, p is an integer of 1 to 6, q is an integer of 1 to 5, and a plurality of R's binding to one ring are the same as or different from each other.
A method for on-boarding a network service descriptor, wherein the method comprises: • receiving, by a primary orchestrator, a cross-domain network service descriptor, NSD, on-boarding command from a sender, • determining, by the primary orchestrator, according to the cross-domain NSD on-boarding command an NSD identifier that corresponds to a management domain of a secondary orchestrator, determining, by the primary orchestrator, according to the cross-domain NSD on-boarding command, a virtualized network function, VNF, packet identifier that corresponds to the management domain of the secondary orchestrator, wherein by the determination of the NSD identifier corresponding to the management domain of the secondary orchestrator together with the determination of the VNF packet identifier corresponding to the management domain of the secondary orchestrator it is determined that the secondary orchestrator needs to on-board the NSD corresponding to the management domain of the secondary orchestrator, • sending, by the primary orchestrator, to the secondary orchestrator a NSD on-boarding command carrying the determined NSD identifier and the determined VNF packet identifier that correspond to the management domain of the secondary orchestrator, wherein the NSD on-boarding command is used to instruct the secondary orchestrator to on-board the NSD corresponding to the NDS identifier, wherein a management domain of the primary orchestrator is different from the management domain of the secondary orchestrator. • receiving, by a primary orchestrator, a cross-domain network service descriptor, NSD, on-boarding command from a sender, • determining, by the primary orchestrator, according to the cross-domain NSD on-boarding command an NSD identifier that corresponds to a management domain of a secondary orchestrator, determining, by the primary orchestrator, according to the cross-domain NSD on-boarding command, a virtualized network function, VNF, packet identifier that corresponds to the management domain of the secondary orchestrator, wherein by the determination of the NSD identifier corresponding to the management domain of the secondary orchestrator together with the determination of the VNF packet identifier corresponding to the management domain of the secondary orchestrator it is determined that the secondary orchestrator needs to on-board the NSD corresponding to the management domain of the secondary orchestrator, • sending, by the primary orchestrator, to the secondary orchestrator a NSD on-boarding command carrying the determined NSD identifier and the determined VNF packet identifier that correspond to the management domain of the secondary orchestrator, wherein the NSD on-boarding command is used to instruct the secondary orchestrator to on-board the NSD corresponding to the NDS identifier, wherein a management domain of the primary orchestrator is different from the management domain of the secondary orchestrator.