mhurhangee/patent-ind-claim-en huggingface dataset:
A propulsion system for an aircraft , the propulsion system comprising: a combustion engine; a propulsor positioned spaced apart from the combustion engine such that they each ingest a different airstream; and an electric machine configured to drive the propulsor, the electric machine defining an axis and comprising: a rotor extending along and rotatable about the axis ; and a stator comprising a plurality of winding assemblies , the plurality of winding assemblies is spaced along the axis of the electric machine , each winding assembly operable with the rotor independently of an adjacent winding assembly during operation of the electric machine ; wherein the plurality of winding assemblies includes a first winding assembly and a second winding assembly spaced along the axis of the electric machine ; wherein the rotor comprises a plurality of permanent magnets , and wherein the plurality of permanent magnets extends continuously between the first winding assembly and the second winding assembly along the axis ; wherein the propulsion system further comprises an electric power bus, wherein each one of the plurality of winding assemblies is separately in electrical communication with the electric power bus ; and wherein one or more of the plurality of winding assemblies is selectively in electrical communication with the electric power bus . a combustion engine; a propulsor positioned spaced apart from the combustion engine such that they each ingest a different airstream; and an electric machine configured to drive the propulsor, the electric machine defining an axis and comprising: a rotor extending along and rotatable about the axis ; and a stator comprising a plurality of winding assemblies , the plurality of winding assemblies is spaced along the axis of the electric machine , each winding assembly operable with the rotor independently of an adjacent winding assembly during operation of the electric machine ; a rotor extending along and rotatable about the axis ; and a stator comprising a plurality of winding assemblies , the plurality of winding assemblies is spaced along the axis of the electric machine , each winding assembly operable with the rotor independently of an adjacent winding assembly during operation of the electric machine ; wherein the plurality of winding assemblies includes a first winding assembly and a second winding assembly spaced along the axis of the electric machine ; wherein the rotor comprises a plurality of permanent magnets , and wherein the plurality of permanent magnets extends continuously between the first winding assembly and the second winding assembly along the axis ; wherein the propulsion system further comprises an electric power bus, wherein each one of the plurality of winding assemblies is separately in electrical communication with the electric power bus ; and wherein one or more of the plurality of winding assemblies is selectively in electrical communication with the electric power bus .
Method for detecting a derailed condition of a rail vehicle , comprising - determining a vehicle position (p) and limiting a driving torque generated by a drive machine of the rail vehicle to a position-dependent maximum value (AM_max), in a fault-free operating state of the rail vehicle , - determining a vehicle speed (v), - detecting the derailed state if the vehicle speed (v) is less than a speed threshold value (v_th) which is determined as a function of position. - determining a vehicle position (p) and limiting a driving torque generated by a drive machine of the rail vehicle to a position-dependent maximum value (AM_max), in a fault-free operating state of the rail vehicle , - determining a vehicle speed (v), - detecting the derailed state if the vehicle speed (v) is less than a speed threshold value (v_th) which is determined as a function of position.
A chip health monitor, comprising: a storage device configured to store instructions; and a processor configured to operate as a programmable state machine based on the stored instructions, wherein the programmable state machine is configured to exercise at least one signal path in a chip in response to a condition and determine presence of an error in the at least one signal path based on a comparison of results from the exercise with an expected value, and wherein the programmable state machine is configured to compensate for the error by changing at least one operational parameter of the chip, wherein the condition includes detection of at least one of: one or more anomalies in data values output from one or more functional blocks of the chip through the at least one signal path, detection of an idle time of a central processing unit of the chip or a periodic timing, and wherein the at least one operational parameter of the chip includes at least one of: a maximum operating frequency of the chip, an operating frequency of a functional unit on the chip, and a supply voltage of the chip, or a forward body bias of the chip. a storage device configured to store instructions; and a processor configured to operate as a programmable state machine based on the stored instructions, wherein the programmable state machine is configured to exercise at least one signal path in a chip in response to a condition and determine presence of an error in the at least one signal path based on a comparison of results from the exercise with an expected value, and wherein the programmable state machine is configured to compensate for the error by changing at least one operational parameter of the chip, wherein the condition includes detection of at least one of: one or more anomalies in data values output from one or more functional blocks of the chip through the at least one signal path, detection of an idle time of a central processing unit of the chip or a periodic timing, and wherein the at least one operational parameter of the chip includes at least one of: a maximum operating frequency of the chip, an operating frequency of a functional unit on the chip, and a supply voltage of the chip, or a forward body bias of the chip. one or more anomalies in data values output from one or more functional blocks of the chip through the at least one signal path, detection of an idle time of a central processing unit of the chip or a periodic timing, and wherein the at least one operational parameter of the chip includes at least one of: a maximum operating frequency of the chip, an operating frequency of a functional unit on the chip, and a supply voltage of the chip, or a forward body bias of the chip. a maximum operating frequency of the chip, an operating frequency of a functional unit on the chip, and a supply voltage of the chip, or a forward body bias of the chip.
An aluminum alloy comprising: greater than 4.5 to less than 6.5 wt% Zn, greater than 0.75 to less than 1.5 wt% Mg, 0 to 0.15 wt% Cu, 0 to 0.10 wt% Zr, 0.04 to 0.25 wt% Fe, up to 0.20 wt% Si, up to 0.3 wt% Ag, not exceeding 0.100 wt% per element Li, Cr, Ti, Mn, Ni, Ge, Sn, In, V, Ga and Hf, the balance being aluminum, optional amounts of Si and Ag, and incidental impurities; wherein the alloy has an average grain aspect ratio of less than or equal to 1:1.3; and wherein the alloy has a yield strength of at least 280 MPa. greater than 4.5 to less than 6.5 wt% Zn, greater than 0.75 to less than 1.5 wt% Mg, 0 to 0.15 wt% Cu, 0 to 0.10 wt% Zr, 0.04 to 0.25 wt% Fe, up to 0.20 wt% Si, up to 0.3 wt% Ag, not exceeding 0.100 wt% per element Li, Cr, Ti, Mn, Ni, Ge, Sn, In, V, Ga and Hf, the balance being aluminum, optional amounts of Si and Ag, and incidental impurities; wherein the alloy has an average grain aspect ratio of less than or equal to 1:1.3; and wherein the alloy has a yield strength of at least 280 MPa.
A computer-implemented method for assessing the quality of a nerve graft, the method comprising obtaining an image identifying laminin-containing tissue in the nerve graft; creating a transformed image using a transformation function of an image processing application on the image; using an analysis function of the image processing application, analyzing the transformed image to identify one or more endoneurial tubes in accordance with one or more recognition criteria, wherein the one or more recognition criteria filter out from the analysis one or more non-endoneurial laminin-containing structures in the nerve graft; and determining one or more structural characteristics of the nerve graft derived from a measurement of the one or more endoneurial tubes. obtaining an image identifying laminin-containing tissue in the nerve graft; creating a transformed image using a transformation function of an image processing application on the image; using an analysis function of the image processing application, analyzing the transformed image to identify one or more endoneurial tubes in accordance with one or more recognition criteria, wherein the one or more recognition criteria filter out from the analysis one or more non-endoneurial laminin-containing structures in the nerve graft; and determining one or more structural characteristics of the nerve graft derived from a measurement of the one or more endoneurial tubes.
A conveyor device for conveying non-homogeneous liquids, such as liquid manure, swill, sewage sludge or fecal matter, comprising - a housing having an antechamber with an intake opening and a main chamber with a discharge opening , - a suction wheel mounted on a driven shaft in the main chamber , - a size-reducing device , having at least one rotating cutting element that is provided between the antechamber and the main chamber and works together with a cutting plate, wherein the cutting plate is provided with a plurality of openings , which form a connection between the antechamber and the main chamber , and - a collecting box having a discharge opening is provided in the antechamber for foreign bodies that cannot be pulverized, characterized in that the openings in the cutting plate are arranged in a helical pattern around the axis of rotation of the at least one rotating cutting element . - a housing having an antechamber with an intake opening and a main chamber with a discharge opening , - a suction wheel mounted on a driven shaft in the main chamber , - a size-reducing device , having at least one rotating cutting element that is provided between the antechamber and the main chamber and works together with a cutting plate, wherein the cutting plate is provided with a plurality of openings , which form a connection between the antechamber and the main chamber , and - a collecting box having a discharge opening is provided in the antechamber for foreign bodies that cannot be pulverized,
A heat exchanger , comprising: a pair of spaced apart manifolds ; and a plurality of heat exchange elements extended between the pair of spaced apart manifolds , wherein at least one manifold of the pair of spaced apart manifolds comprises a first part and a second part integrally formed with the first part at an angle, wherein the first part is connected to the second part at an angle ranging from 2° to 180°, the first part of the manifold comprising slots adapted to receive the plurality of heat exchange elements , wherein the heat exchanger includes a sealing cap provided at one end of the first part to seal the cross-section of the first part of the manifold , and characterized in that the first part and the second part are having same profile and same cross-section and another end of the first part being fluidically connected to the second part . a pair of spaced apart manifolds ; and a plurality of heat exchange elements extended between the pair of spaced apart manifolds , wherein at least one manifold of the pair of spaced apart manifolds comprises a first part and a second part integrally formed with the first part at an angle, wherein the first part is connected to the second part at an angle ranging from 2° to 180°, the first part of the manifold comprising slots adapted to receive the plurality of heat exchange elements , wherein the heat exchanger includes a sealing cap provided at one end of the first part to seal the cross-section of the first part of the manifold , and characterized in that the first part and the second part are having same profile and same cross-section and another end of the first part being fluidically connected to the second part .
A handle assembly for controlling a robot system , comprising: a body portion ; a controller disposed within the body portion; a first actuator disposed on the body portion; and a four-bar linkage mechanically coupling the controller and the first actuator such that actuation of the first actuator causes mechanical movement of a component of the controller which is converted by the controller into an electrical signal for controlling a robot system , wherein the four-bar linkage includes a first link , a second link fixedly disposed within the body portion and operably connected to the controller, and third and fourth links pivotably coupled to the first and second links; wherein the component of the controller is a first gear , characterized in that the second link of the four-bar linkage includes a second gear attached to a shaft rotatably disposed within the second link, the second gear of the second link meshingly engaged with the first gear of the controller, wherein movement of the fourth link causes rotational movement of the second gear of the second link which causes rotational movement of the first gear of the controller. a body portion ; a controller disposed within the body portion; a first actuator disposed on the body portion; and a four-bar linkage mechanically coupling the controller and the first actuator such that actuation of the first actuator causes mechanical movement of a component of the controller which is converted by the controller into an electrical signal for controlling a robot system , wherein the four-bar linkage includes a first link , a second link fixedly disposed within the body portion and operably connected to the controller, and third and fourth links pivotably coupled to the first and second links; wherein the component of the controller is a first gear , characterized in that the second link of the four-bar linkage includes a second gear attached to a shaft rotatably disposed within the second link, the second gear of the second link meshingly engaged with the first gear of the controller, wherein movement of the fourth link causes rotational movement of the second gear of the second link which causes rotational movement of the first gear of the controller.
A sensor element for determining at least one analyte, comprising a pair of electrodes and at least an active and an inactive chemistry matrix , said active chemistry matrix changing at least one electrochemical property dependent on an enzymatic activity active in the presence of said analyte, (i) wherein said pair of electrodes consists of two electrodes electrically insulated from any additional electrode potentially present in said sensor element , (ii) wherein said active chemistry matrix comprises said enzymatic activity and wherein said inactive chemistry matrix does not comprise said enzymatic activity, and (iii) wherein a first electrode of said pair of electrodes contacts said active chemistry matrix and wherein a second electrode of said pair of electrodes contacts said inactive chemistry matrix . (i) wherein said pair of electrodes consists of two electrodes electrically insulated from any additional electrode potentially present in said sensor element , (ii) wherein said active chemistry matrix comprises said enzymatic activity and wherein said inactive chemistry matrix does not comprise said enzymatic activity, and (iii) wherein a first electrode of said pair of electrodes contacts said active chemistry matrix and wherein a second electrode of said pair of electrodes contacts said inactive chemistry matrix .
A method for automatic clearing a print head of a three-dimensional printer, in which a measuring system measures the amount of an extruded printing material fed per unit of time by a drive system for feeding the printing material , wherein in the event of an error detected by the measuring system based on the measurement of the amount of the extruded printing material , said error being reported as a blockage of the print head , characterised in that the printing material is withdrawn and then re-fed, wherein in addition to the drive system feeding the printing material , an additional drive system for the material feed is used, said additional drive system is being actuated after detection of the error, wherein after material withdrawal, the printing material is fed again with increasing speed from zero to a rated speed using both drive systems .
In a warehouse environment having a plurality of inventory items located therein, each having a corresponding on-item identifier, a method comprising: determining a target inventory item from the plurality of inventory items, the target inventory item having a target on-item identifier; determining that a first inventory item having a first on-item identifier is loaded onto a first robotic device; transmitting, by the first robotic device, a request for a second robotic device to verify the first on-item identifier; receiving data captured by a sensor of the second robotic device; analyzing the received data to determine the first on-item identifier; comparing the first on-item identifier and the target on-item identifier; and responsive to comparing the first on-item identifier and the target on-item identifier, performing an action. determining a target inventory item from the plurality of inventory items, the target inventory item having a target on-item identifier; determining that a first inventory item having a first on-item identifier is loaded onto a first robotic device; transmitting, by the first robotic device, a request for a second robotic device to verify the first on-item identifier; receiving data captured by a sensor of the second robotic device; analyzing the received data to determine the first on-item identifier; comparing the first on-item identifier and the target on-item identifier; and responsive to comparing the first on-item identifier and the target on-item identifier, performing an action.
A composition for a secondary battery porous membrane containing α-alumina-based modified particles, a particulate binder and water, wherein each of the α-alumina-based modified particles has a peak in a region from 3500 cm -1 to 3600 cm -1 in an infrared diffuse reflectance spectrometry.
A sliding part of a gas turbine with a wear resistant coating, comprising: a sliding part ; and a wear resistant coating provided on a sliding surface of the sliding part , and made of a cobalt alloy containing chromium and silicon, wherein approximately spherical oxide particles are dispersed in the wear resistant coating , the oxide particles including an oxide which contains chromium and silicon, and having a particle size of 100 μm orless when a cross section of the wear resistant coating is observed using an optical microscope with a magnification of 100 times, wherein when a 300 μm × 300 μm area in the cross section of the wear resistant coating is observed using the optical microscope with the magnification of 100 times, 10 or more oxide particles with a particle size of 10 μm orless are present therein. a sliding part ; and a wear resistant coating provided on a sliding surface of the sliding part , and made of a cobalt alloy containing chromium and silicon, wherein approximately spherical oxide particles are dispersed in the wear resistant coating , the oxide particles including an oxide which contains chromium and silicon, and having a particle size of 100 μm orless when a cross section of the wear resistant coating is observed using an optical microscope with a magnification of 100 times, wherein when a 300 μm × 300 μm area in the cross section of the wear resistant coating is observed using the optical microscope with the magnification of 100 times, 10 or more oxide particles with a particle size of 10 μm orless are present therein.
An apparatus for recovering an unmanned vehicle , comprising: a pod configured to be coupled to a hardpoint of an aircraft ; a container for storing at least one unmanned vehicle, the container having an opening for receiving an unmanned vehicle and housed within the pod; an extendable tether , a first end of the tether being coupled to the inside of the container, a second end of the tether being arranged to pass through the opening; and at least one light source affixed to the second end of the tether. a pod configured to be coupled to a hardpoint of an aircraft ; a container for storing at least one unmanned vehicle, the container having an opening for receiving an unmanned vehicle and housed within the pod; an extendable tether , a first end of the tether being coupled to the inside of the container, a second end of the tether being arranged to pass through the opening; and at least one light source affixed to the second end of the tether.
A portable, battery-operated hydraulic unit for hydraulic rescue tools , in particular for spreading or shearing tools, with at least one hydraulic pump , a hydraulic tank , a compensating device for hydraulic fluid, a manually operated hydraulic control valve , an electromechanical interface for connecting and disconnecting at least one battery pack as required, a mechanical-hydraulic interface for connecting a hydraulic tool , and with an electric motor , which can be operated by the electrical energy of the battery pack , for driving the hydraulic pump , wherein the electric motor is formed by a disc rotor motor whose axial length , which runs parallel to the longitudinal axis of its output shaft , is shorter than its external diameter , characterized in that the disc rotor motor is configured as an external rotor motor with an external, rotatable rotor and an internal, stationary stator and as a bell-shaped rotor motor with an essentially bell-shaped or U-shaped rotor , wherein the output shaft formed on the rotor passes through the stator in the axial direction of the output shaft .