mhurhangee/patent-ind-claim-en huggingface dataset:
A self-propelled combine harvester , • with a threshing assembly which is provided for threshing harvested crop , wherein a grain pan for transporting grain or fruit which has been threshed out is provided below the threshing assembly in a vertical direction , • with a cleaning system which is provided for separating non-grain components from the harvested crop which has been threshed out and for this purpose comprises at least one separating sieve and is disposed downstream of the grain pan , and • with a residual grain separating system , in particular an axial rotor, which is provided for separating residual grain or residual fruit from the harvested crop which has been threshed out and which is disposed downstream of the threshing assembly , wherein a return for transporting the residual grain or residual fruit to the cleaning system is provided below the residual grain separating system , and wherein the return is configured as a return module which comprises an actively driven continuously revolving return conveyor belt , wherein the return conveyor belt is provided for dropping the residual grain or residual fruit onto the grain pan , characterized in that the return module can be adjusted, in particular manually, forwards and backwards in the longitudinal direction , so that an overlap (L) of the return conveyor belt with the grain pan can be adjusted. • with a threshing assembly which is provided for threshing harvested crop , wherein a grain pan for transporting grain or fruit which has been threshed out is provided below the threshing assembly in a vertical direction , • with a cleaning system which is provided for separating non-grain components from the harvested crop which has been threshed out and for this purpose comprises at least one separating sieve and is disposed downstream of the grain pan , and • with a residual grain separating system , in particular an axial rotor, which is provided for separating residual grain or residual fruit from the harvested crop which has been threshed out and which is disposed downstream of the threshing assembly , wherein a return for transporting the residual grain or residual fruit to the cleaning system is provided below the residual grain separating system , and wherein the return is configured as a return module which comprises an actively driven continuously revolving return conveyor belt ,
Method for operating a belt-driven starter generator of an internal combustion engine , - wherein a time interval (Δt) between a start of a rotational movement of the belt-driven starter generator and a start of a rotational movement of the internal combustion engine is determined , - wherein the determined time interval (Δt) is compared with a reference value (Δt Ref ) and the structural change of a belt of the belt-driven starter generator is concluded thereof, and - wherein a rotational torque of the belt-driven starter generator and/or a rotational torque of a component connected to the belt are limited as a function of the structural change of the belt . - wherein a time interval (Δt) between a start of a rotational movement of the belt-driven starter generator and a start of a rotational movement of the internal combustion engine is determined , - wherein the determined time interval (Δt) is compared with a reference value (Δt Ref ) and the structural change of a belt of the belt-driven starter generator is concluded thereof, and - wherein a rotational torque of the belt-driven starter generator and/or a rotational torque of a component connected to the belt are limited as a function of the structural change of the belt .
Conveyor for moving four-wheeled vehicles, comprising a telescopic frame provided with tire-chock arms movable between a retracted position and a position in which they engage with the treads of said wheels, characterized in that it further comprises a propulsion unit made up of a front frame to which two lateral subunits are secured, each comprising a motorized and directional wheel which can be oriented independently of one another and a means for coupling said telescopic frame with said front frame.
A generalized integrated DOC-DPF-SCR post-treatment apparatus, comprising a case , a DOC-DPF unit , two SCR units , an urea mixer , and an exhaust pipe , wherein the number of the urea mixer is one or two; the case has a square cross-section; the two SCR units are arranged symmetrically with each other with respect to a diagonal of the square cross-section along which the DOC-DPF unit and the exhaust pipe are arranged; exhaust gas in the DOC-DPF unit is discharged into the urea mixer to form mixed exhaust gas, the mixed exhaust gas in the urea mixer is discharged into the SCR units , and then is discharged into the exhaust pipe after being processed by the SCR units , characterized in that the urea mixer is symmetrically arranged with respect to the diagonal of the square cross-section along which the DOC-DPF unit and the exhaust pipe are arranged, and the urea mixer is arranged between the DOC-DPF unit and the exhaust pipe , the DOC-DPF unit and the exhaust pipe are respectively arranged at two diagonal corners with respect to the square cross-section of the case , an inlet of the exhaust pipe is arranged at a rear end of the case , an exhaust port of the exhaust pipe is arranged on a front end cover of the case , a rear end cover of the case , a bottom wall of the case or a side wall of the case . the number of the urea mixer is one or two; the case has a square cross-section; the two SCR units are arranged symmetrically with each other with respect to a diagonal of the square cross-section along which the DOC-DPF unit and the exhaust pipe are arranged; exhaust gas in the DOC-DPF unit is discharged into the urea mixer to form mixed exhaust gas, the mixed exhaust gas in the urea mixer is discharged into the SCR units , and then is discharged into the exhaust pipe after being processed by the SCR units , characterized in that the urea mixer is symmetrically arranged with respect to the diagonal of the square cross-section along which the DOC-DPF unit and the exhaust pipe are arranged, and the urea mixer is arranged between the DOC-DPF unit and the exhaust pipe , the DOC-DPF unit and the exhaust pipe are respectively arranged at two diagonal corners with respect to the square cross-section of the case , an inlet of the exhaust pipe is arranged at a rear end of the case , an exhaust port of the exhaust pipe is arranged on a front end cover of the case , a rear end cover of the case , a bottom wall of the case or a side wall of the case .
A method comprising: receiving an alert message from a reporting wireless network sensor of a plurality of wireless network sensors via a wireless sensor network, the wireless network sensors being in data communication with neighbor wireless network sensors of the wireless sensor network, the alert message including information indicative of a modification needed to an environmental condition, the alert message including an indication of stability or instability of a computer room air conditioning unit,CRAC, in a data center, wherein instability is indicated if an airflow across the refrigeration coil of the CRAC is below a minimum required for reliable operation of the CRAC; and using the information indicative of a modification needed to an environmental condition at a networked controller (C1, C2, C3, C4) to command a device capable of modifying the environmental condition to modify the environmental condition in a manner corresponding to the information in the alert message, commanding the device including controlling fan speed in the CRAC to correct an indication of instability. receiving an alert message from a reporting wireless network sensor of a plurality of wireless network sensors via a wireless sensor network, the wireless network sensors being in data communication with neighbor wireless network sensors of the wireless sensor network, the alert message including information indicative of a modification needed to an environmental condition, the alert message including an indication of stability or instability of a computer room air conditioning unit,CRAC, in a data center, wherein instability is indicated if an airflow across the refrigeration coil of the CRAC is below a minimum required for reliable operation of the CRAC; and using the information indicative of a modification needed to an environmental condition at a networked controller (C1, C2, C3, C4) to command a device capable of modifying the environmental condition to modify the environmental condition in a manner corresponding to the information in the alert message, commanding the device including controlling fan speed in the CRAC to correct an indication of instability.
Device for powering a plurality of loads from an electrical energy supply network , comprising a plurality of converters in parallel , supplied with electrical energy by the network , ensuring the conversion and the supply of electrical energy for at least one load of the plurality of loads, comprising a control member configured to associate said multiple converters to power the at least one load , in response to a power requirement from the at least one load , characterised in that each of the converters delivers electrical energy to the at least one load in N1 phases, and in that each of the converters comprises distributed means comprising a zero sequence transformer coupling the N1 phases, configured to generate a predefined zero-frequence impedance allowing, for each phase, to oppose the creation of high-frequency recirculation current between the converters , in order to curtail recirculation currents generated by the parallel association of the multiple converters . comprising a control member configured to associate said multiple converters to power the at least one load , in response to a power requirement from the at least one load , characterised in that each of the converters delivers electrical energy to the at least one load in N1 phases, and in that each of the converters comprises distributed means comprising a zero sequence transformer coupling the N1 phases, configured to generate a predefined zero-frequence impedance allowing, for each phase, to oppose the creation of high-frequency recirculation current between the converters , in order to curtail recirculation currents generated by the parallel association of the multiple converters .
A multistage centrifugal pump for conveying a fluid, comprising a pump housing with an inlet and an outlet for the fluid, two first stage impellers and a last stage impeller for conveying the fluid from the inlet to the outlet , and a shaft for rotating each impeller about an axial direction (A), wherein each impeller comprises a suction side (S, S1, S2) for receiving the fluid and a discharge side (D) for discharging the fluid, wherein the last stage impeller is configured as a double suction impeller , having a first suction side and a second suction side (S2), wherein the last stage impeller is arranged between the two first stage impellers with respect to the axial direction (A), and wherein each first stage impeller is arranged with the suction side (S) of the first stage impeller facing one of the first and the second suction side (S1, S2) of the last stage impeller , characterized in that the first stage impellers are each configured as single suction impellers .
A nonwoven web comprising: a nonwoven substrate and a binder comprising a polysaccharide that comprises: (a) poly alpha-1,3-glucan; or (b) a poly alpha-1,3-glucan ether compound represented by Structure I: wherein (i) n is at least 6, (ii) each R is independently an H or a positively charged organic group, and (iii) the compound has a degree of substitution of 0.001 to 3.0; wherein the polysaccharide is in the form of fibrids. a nonwoven substrate and a binder comprising a polysaccharide that comprises: (a) poly alpha-1,3-glucan; or (b) a poly alpha-1,3-glucan ether compound represented by Structure I: wherein (i) n is at least 6, (ii) each R is independently an H or a positively charged organic group, and (iii) the compound has a degree of substitution of 0.001 to 3.0; (a) poly alpha-1,3-glucan; or (b) a poly alpha-1,3-glucan ether compound represented by Structure I: wherein (i) n is at least 6, (ii) each R is independently an H or a positively charged organic group, and (iii) the compound has a degree of substitution of 0.001 to 3.0; (i) n is at least 6, (ii) each R is independently an H or a positively charged organic group, and (iii) the compound has a degree of substitution of 0.001 to 3.0; wherein the polysaccharide is in the form of fibrids.
A polyorganosiloxane, wherein a value obtained by integrating dw/dlog(M) from 2.5 ≤ log(M) ≤ 3.1 is 0 to 10% of a value obtained by integrating dw/dlog(M) over the entire range of log (M) in a differential molecular weight distribution curve, wherein the differential molecular weight distribution curve is determined by gel permeation chromatography using the polystyrene calibration curve, has an x-axis showing a logarithmic value log(M) of a molecular weight M and has a y-axis showing dw/dlog(M) obtained by differentiating a concentration fraction w with respect to the logarithmic value log(M) of the molecular weight, wherein an average chain length thereof is in the range of 35 to 45, calculated by NMR measurement.
Device for damping torsional oscillations, having a single resonant frequency, for a component of a transmission system, the device being intended to be positioned away from the path followed by the torque transmitted by this component, the device comprising: - a primary component and a secondary component , which is capable of rotational movement about an axis (X) with respect to the primary component against an elastic return force, and - a hysteresis generating system for moving the secondary component with respect to the primary component , the said system comprising at least one ramp borne by a part secured to the secondary component and interacting frictionally with a counter-ramp as the secondary component rotates with respect to the primary component , the part secured to the secondary component bearing the ramp being a washer , characterized in that this washer is positioned axially beyond the secondary component and the primary component . - a primary component and a secondary component , which is capable of rotational movement about an axis (X) with respect to the primary component against an elastic return force, and - a hysteresis generating system for moving the secondary component with respect to the primary component , the said system comprising at least one ramp borne by a part secured to the secondary component and interacting frictionally with a counter-ramp as the secondary component rotates with respect to the primary component ,
A method of manufacturing a mold insert for injection molding, in particular injection compression molding, of a unitary brush head having a base and filaments extending therefrom comprising the steps of: - providing at least a first insert plate and a second insert plate that each have at least one front face ; - forming a portion of at least one filament cavity into at least one of the front faces of the first or second insert plate (410; 4301) such that the filament cavity is open at a top surface of the insert plate but does not extend through to a bottom surface of the insert plate ; - forming a venting cavity into the same front face into which the filament cavity is formed, where the venting cavity is formed with a depth in the range of between 1 μm and 20 μm, in particular of between 2 μm and 10 μm, such that the venting cavity is in air conducting connection with the blind-hole end of the filament cavity ; and - bringing the front faces of the first and second insert plates (410: 4301) into close abutment so that at least one filament cavity is formed. - providing at least a first insert plate and a second insert plate that each have at least one front face ; - forming a portion of at least one filament cavity into at least one of the front faces of the first or second insert plate (410; 4301) such that the filament cavity is open at a top surface of the insert plate but does not extend through to a bottom surface of the insert plate ; - forming a venting cavity into the same front face into which the filament cavity is formed, where the venting cavity is formed with a depth in the range of between 1 μm and 20 μm, in particular of between 2 μm and 10 μm, such that the venting cavity is in air conducting connection with the blind-hole end of the filament cavity ; and - bringing the front faces of the first and second insert plates (410: 4301) into close abutment so that at least one filament cavity is formed.
A structured light projection system comprising: an array of light emitting devices that emits a pattern of light; a first optical element configured to alter the pattern of light emitted by the array of light emitting devices to generate a first emitted pattern of light , the first emitted pattern of light being irregular; and a second optical element configured to receive the first pattern of light generated by the first optical element and reproduce the first emitted pattern along a second emitted pattern , the second emitted pattern comprising multiple instances of the first emitted pattern arranged in a tiled pattern; characterized in that : the array comprises a grid of one or more individual clusters of light emitting devices, the individual clusters of light emitting devices comprising one or more light emitting devices arranged in a non-uniform pattern. an array of light emitting devices that emits a pattern of light; a first optical element configured to alter the pattern of light emitted by the array of light emitting devices to generate a first emitted pattern of light , the first emitted pattern of light being irregular; and a second optical element configured to receive the first pattern of light generated by the first optical element and reproduce the first emitted pattern along a second emitted pattern , the second emitted pattern comprising multiple instances of the first emitted pattern arranged in a tiled pattern; characterized in that : the array comprises a grid of one or more individual clusters of light emitting devices, the individual clusters of light emitting devices comprising one or more light emitting devices arranged in a non-uniform pattern.
A link group configuration method, comprising: obtaining, by a first device, first status information of M links between a source end device and a receive end device, wherein the first status information is used to indicate a status of a differential delay between any two of the M links, any one of the M links is a flexible Ethernet, FlexE, physical connection link or a flexible optical transport network FlexO physical connection link, and M is an integer greater than or equal to 2; obtaining, by the first device, first capability information of the receive end device, wherein the first capability information is used to indicate a first capability of performing differential delay compensation on the M links by the receive end device; grouping, by the first device, N of the M links into a first link group based on the first status information and the first capability information, wherein N is an integer less than or equal to M and greater than or equal to 2; and sending, by the first device, first configuration information to a second device, wherein the first configuration information comprises information used to indicate the first link group. obtaining, by a first device, first status information of M links between a source end device and a receive end device, wherein the first status information is used to indicate a status of a differential delay between any two of the M links, any one of the M links is a flexible Ethernet, FlexE, physical connection link or a flexible optical transport network FlexO physical connection link, and M is an integer greater than or equal to 2; obtaining, by the first device, first capability information of the receive end device, wherein the first capability information is used to indicate a first capability of performing differential delay compensation on the M links by the receive end device; grouping, by the first device, N of the M links into a first link group based on the first status information and the first capability information, wherein N is an integer less than or equal to M and greater than or equal to 2; and sending, by the first device, first configuration information to a second device, wherein the first configuration information comprises information used to indicate the first link group.
A deep neural network (DNN) processor , comprising: a plurality of neuron processing elements implemented as ASICs configured to provide SIMD compute lanes, wherein each of the neuron processing elements are synchronized with each of the other neuron processing elements based on flow of kernel data within the DNN processor, the neuron processing elements comprising: an even number of hardware binary multipliers , each of the hardware binary multipliers configured to multiply a first signed 8-bit operand, that is, a 9-bit number, with a second signed 8-bit operand, that is, a 9-bit number, to generate a 18-bit binary output, and a single hardware binary adder tree for summing binary outputs of the hardware binary multipliers as follows: process the 18-bit binary outputs to generate 19-bit values; process the 19-bit values to generate 20-bit values; process the 20-bit values to generate a 21-bit value; and output the 21-bit value. an even number of hardware binary multipliers , each of the hardware binary multipliers configured to multiply a first signed 8-bit operand, that is, a 9-bit number, with a second signed 8-bit operand, that is, a 9-bit number, to generate a 18-bit binary output, and a single hardware binary adder tree for summing binary outputs of the hardware binary multipliers as follows: process the 18-bit binary outputs to generate 19-bit values; process the 19-bit values to generate 20-bit values; process the 20-bit values to generate a 21-bit value; and output the 21-bit value. process the 18-bit binary outputs to generate 19-bit values; process the 19-bit values to generate 20-bit values; process the 20-bit values to generate a 21-bit value; and output the 21-bit value.