mhurhangee/patent-ind-claim-en huggingface dataset:
A fuel injector comprising: a conduit for conveying fuel from a fuel inlet to a nozzle having a nozzle tip structure ; and a support in which the conduit is located; characterised by further comprising: a heat shield on an exterior of the support , wherein the conduit , the nozzle tip structure of the nozzle , the support , and the heat shield are a single unitary piece; and a thermally compliant feature at the nozzle which allows the fuel injector to adjust for differential thermal expansion, wherein the thermally compliant feature comprises a gap in the nozzle , and the gap is located between the heat shield and the nozzle tip structure . a conduit for conveying fuel from a fuel inlet to a nozzle having a nozzle tip structure ; and a support in which the conduit is located; characterised by further comprising: a heat shield on an exterior of the support , wherein the conduit , the nozzle tip structure of the nozzle , the support , and the heat shield are a single unitary piece; and a thermally compliant feature at the nozzle which allows the fuel injector to adjust for differential thermal expansion, wherein the thermally compliant feature comprises a gap in the nozzle , and the gap is located between the heat shield and the nozzle tip structure . a heat shield on an exterior of the support , wherein the conduit , the nozzle tip structure of the nozzle , the support , and the heat shield are a single unitary piece; and a thermally compliant feature at the nozzle which allows the fuel injector to adjust for differential thermal expansion, wherein the thermally compliant feature comprises a gap in the nozzle , and the gap is located between the heat shield and the nozzle tip structure .
Motor vehicle comprising a powertrain , at least two axles bearing the wheels of the vehicle, a device for mechanical transmission of the engine torque to a first axle, a device for hydraulic transmission of the engine torque to another axle associated with an automatic control unit , means for measuring operating parameters of the motor vehicle and a coupling/decoupling mechanism associated with the hydraulic transmission device, characterized in that the automatic control unit of the hydraulic transmission device is able to act on the powertrain in order to modify the engine torque in dependence on the comparison of said operating parameters of the motor vehicle with reference values prior to the decoupling command.
A zipper tape having an elongated shape, the zipper tape comprising, in a cross-sectional shape thereof: a pair of base strips; and engagement portions projecting from respective opposing surfaces of the pair of base strips and being engageable with each other, wherein at least the engagement portions each are formed with a resin composition including polypropylene, the resin composition having tensile modulus of elasticity of less than or equal to 600 MPA, characterized by the resin composition having fusion enthalpy ΔH 120 in a temperature range of higher than or equal to 120 degrees C measured by differential scanning calorimetry (DSC) of less than 30 J/g. a pair of base strips; and engagement portions projecting from respective opposing surfaces of the pair of base strips and being engageable with each other, wherein at least the engagement portions each are formed with a resin composition including polypropylene, the resin composition having tensile modulus of elasticity of less than or equal to 600 MPA, characterized by the resin composition having fusion enthalpy ΔH 120 in a temperature range of higher than or equal to 120 degrees C measured by differential scanning calorimetry (DSC) of less than 30 J/g.
A method for operating an industrial control system , comprising at least one stationary control device and at least one control-based hand-held terminal portable by an operator , which at least one control device can be connected to sensors and actuators of a machine or installation to be controlled, and which at least one control device has at least one data interface for establishing and terminating a control-based interaction with at least one of the portable, control-based hand-held terminals as needed, wherein such a control-based interaction is built via at least one data interface of a hand-held terminal to be connected, and wherein at least one of the hand-held terminals has at least one safety switching element that can be manually actuated by an operator for initiating and/or terminating potentially safety-critical control commands and/or control processes, and having at least one data technical identifier assigned to the respective hand-held terminals for identifying the respective hand-held terminal relative to at least one of the control devices , characterized in that the data technical identifier of the hand-held terminal represents at least the respective hardware version and the respective software status of the respective hand-held terminal , the data technical identifier , prior to establishing a control-based interaction, is transmitted starting from a hand-held terminal provided for connection to at least one control device or is called up from at least one of the control devices , the data technical identifier is evaluated by at least one of the control devices , and in that the mode of behavior of the respective control device or of the entire control system in relation to (i) permissibility or non-permissibility of the establishment of a control-based interaction, in relation to (ii) functional behavior during an active control-based interaction and in relation to (iii) functional behavior in connection with the termination of a control-based interaction between the respective control device and the hand-held terminal is determined depending on these evaluation results.
A robot cleaner comprising: a main body; a driving unit configured to move the main body; a sensing unit configured to sense information related to an obstacle ; and a controller configured to control the driving unit to prevent collision of the main body with the obstacle, characterized in that the controller is configured to operate a stopping process based on a distance between the main body and the obstacle after the information related to the obstacle is sensed, and the controller is configured to control the driving unit to reverse the main body with respect to the obstacle so as to prevent the collision of the main body with the obstacle , based on the distance between the main body and the obstacle , after the stopping process is completed. a main body; a driving unit configured to move the main body; a sensing unit configured to sense information related to an obstacle ; and a controller configured to control the driving unit to prevent collision of the main body with the obstacle, characterized in that the controller is configured to operate a stopping process based on a distance between the main body and the obstacle after the information related to the obstacle is sensed, and the controller is configured to control the driving unit to reverse the main body with respect to the obstacle so as to prevent the collision of the main body with the obstacle , based on the distance between the main body and the obstacle , after the stopping process is completed.
Double stent comprising two coaxially arranged stents, wherein a first membrane being arranged between a first inner stent and a second outer stent , characterized in that a second membrane is arranged on the second stent and that the membrane ends of the first and second membrane are brought together at the ends of the stents and are folded over onto the inside of the first stent and clamped under flexible tongues of the first stent .
A sole structure comprising: a forefoot region , a midfoot region , and a heel region ; the sole structure having a lateral edge and a medial edge , the sole structure further having a toe edge and a heel edge ; a first plurality of sipes ; a second plurality of sipes ; the first plurality of sipes extending from the medial edge of the sole structure toward the lateral edge of the sole structure ; each sipe of the first plurality of sipes extending from a first position along the medial edge to a second position between the medial edge and the lateral edge ; the first position being located closer to the heel edge than the second position; the second plurality of sipes extending from the lateral edge of the sole structure toward the medial edge of the sole structure ; each sipe of the second plurality of sipes extending from a third position along the lateral edge to a fourth position between the lateral edge and the medial edge ; the third position being located closer to the heel edge than the fourth position; wherein the first plurality of sipes are located in the forefoot region , the midfoot region , and the heel region ; and wherein the second plurality of sipes are located in the forefoot region , the midfoot region , and the heel region . a forefoot region , a midfoot region , and a heel region ; the sole structure having a lateral edge and a medial edge , the sole structure further having a toe edge and a heel edge ; a first plurality of sipes ; a second plurality of sipes ; the first plurality of sipes extending from the medial edge of the sole structure toward the lateral edge of the sole structure ; each sipe of the first plurality of sipes extending from a first position along the medial edge to a second position between the medial edge and the lateral edge ; the first position being located closer to the heel edge than the second position; the second plurality of sipes extending from the lateral edge of the sole structure toward the medial edge of the sole structure ; each sipe of the second plurality of sipes extending from a third position along the lateral edge to a fourth position between the lateral edge and the medial edge ; the third position being located closer to the heel edge than the fourth position; wherein the first plurality of sipes are located in the forefoot region , the midfoot region , and the heel region ; and wherein the second plurality of sipes are located in the forefoot region , the midfoot region , and the heel region .
A method, comprising: receiving , at a first network device , delay information for one or more communication segments in a network; determining by a machine learning process on the first network device a predictability measurement for delays along the segment using the received delay information ; advertising by the first network device the predictability measurement to one or more devices other than the first network device in the network ; and using the predictability measurement as a routing constraint to select a routing path in the network; wherein the machine learning process on the first network device dynamically selects which communication segments are to be analyzed by the first network device ; and wherein dynamically selecting includes dynamically discovering which other network devices in the network are hosting a machine learning process for delay estimations. receiving , at a first network device , delay information for one or more communication segments in a network; determining by a machine learning process on the first network device a predictability measurement for delays along the segment using the received delay information ; advertising by the first network device the predictability measurement to one or more devices other than the first network device in the network ; and using the predictability measurement as a routing constraint to select a routing path in the network; wherein the machine learning process on the first network device dynamically selects which communication segments are to be analyzed by the first network device ; and wherein dynamically selecting includes dynamically discovering which other network devices in the network are hosting a machine learning process for delay estimations.
A computer-implemented method for managing user key pairs, the method comprising: receiving biometric information associated with a user and a first request to store a user key pair associated with the user to a memory on an identity cryptographic chip or chip set - ICC - ; initializing the ICC, wherein initializing the ICC comprises storing biometric information in the memory as pre-stored biometric information, storing a first cryptographic operation code executable to add a digital signature based on the user key pair, and storing a second cryptographic operation code executable to perform file encryption or file decryption based on the user key pair; comparing the biometric information associated with the user with the pre-stored biometric information; in response to determining that the biometric information associated with the user matches the pre-stored biometric information, encrypting the user key pair to provide an encrypted user key pair; storing the encrypted user key pair to the memory; receiving second biometric information and a second request for adding a digital signature to a file; authenticating the second request based on matching the second biometric information to the pre-stored biometric information; and adding the digital signature to the file based on the first cryptographic operation code and a private key of the user key pair. receiving biometric information associated with a user and a first request to store a user key pair associated with the user to a memory on an identity cryptographic chip or chip set - ICC - ; initializing the ICC, wherein initializing the ICC comprises storing biometric information in the memory as pre-stored biometric information, storing a first cryptographic operation code executable to add a digital signature based on the user key pair, and storing a second cryptographic operation code executable to perform file encryption or file decryption based on the user key pair; storing biometric information in the memory as pre-stored biometric information, storing a first cryptographic operation code executable to add a digital signature based on the user key pair, and storing a second cryptographic operation code executable to perform file encryption or file decryption based on the user key pair; comparing the biometric information associated with the user with the pre-stored biometric information; in response to determining that the biometric information associated with the user matches the pre-stored biometric information, encrypting the user key pair to provide an encrypted user key pair; storing the encrypted user key pair to the memory; receiving second biometric information and a second request for adding a digital signature to a file; authenticating the second request based on matching the second biometric information to the pre-stored biometric information; and adding the digital signature to the file based on the first cryptographic operation code and a private key of the user key pair.
Method for further forming and form stabilisation of pre-filled and sealed containers which are manufactured using the blow moulding, filling and sealing method, characterised by at least the following steps: - placing the respective container into a receiving device, the web walls of which at least partially define a contour, on which the container warms up during a heat treatment, adapting in a forming manner and applying in a form-stabilising manner due to the excess pressure thus generated inside the container; - carrying out a plastic material deformation due to the excess pressure inside the container, during which an initially rounded fold line path for a fold line of the container, which arises from the preceding container manufacturing step using the blow moulding, filling and sealing method, transitions into a sharper edge by pressing the web walls of the receiving device and applying without any space between them; and - removing the respective container from the receiving device on completion of forming and form stabilisation. - placing the respective container into a receiving device, the web walls of which at least partially define a contour, on which the container warms up during a heat treatment, adapting in a forming manner and applying in a form-stabilising manner due to the excess pressure thus generated inside the container; - carrying out a plastic material deformation due to the excess pressure inside the container, during which an initially rounded fold line path for a fold line of the container, which arises from the preceding container manufacturing step using the blow moulding, filling and sealing method, transitions into a sharper edge by pressing the web walls of the receiving device and applying without any space between them; and - removing the respective container from the receiving device on completion of forming and form stabilisation.
A stripping device comprising: a distillation column of which at least a part or the entirety of a lower portion is perforated; a stripping vessel integrally connected to the lower portion of the distillation column ; and one or more spray nozzles provided at an upper portion of the stripping vessel ; a solid-liquid separation device for receiving a lower discharge stream of the stripping vessel ; a water transfer line connecting the one or more spray nozzles and the solid-liquid separation device to each other. a distillation column of which at least a part or the entirety of a lower portion is perforated; a stripping vessel integrally connected to the lower portion of the distillation column ; and one or more spray nozzles provided at an upper portion of the stripping vessel ; a solid-liquid separation device for receiving a lower discharge stream of the stripping vessel ; a water transfer line connecting the one or more spray nozzles and the solid-liquid separation device to each other.
Flyer winding device for winding a laminated core which is embodied in such a way that two or more laminated cores combine to form a stator or rotor, having a solenoid for an electric motor, wherein a flyer winding arm of the flyer winding device winds a conductive, insulated coil wire into one or more grooves, in particular pole horn grooves , of a winding service of the laminated core , comprising a securing device for securing the laminated core to be wound, during the winding process and a counterholding device , wherein at least one winding support surface of the counterholding device is provided, which winding support surface can be moved or pivoted in relation to that region of the winding surface of the laminated core which projects out of the groove, in particular of the pole horn groove , and the winding support surface has at least one coil-shaping element , as a result of which the winding layer of the coil wire or a shape of a partial region, projecting out of the groove, in particular out of the pole horn groove , of the solenoid can be predefined during the winding process, characterized in that in order to position an insulating paper in a defined fashion, which insulating paper essentially insulates the winding surface of the laminated core with respect to the solenoid , an attachment gap is formed in the winding support surface , into which attachment gap the insulating paper can be placed and therefore secured during the winding process.
A method of manufacturing a multi-material fiber comprising at least one electrically-connectable device, the method comprising the steps of: positioning each electrically-connectable device within a corresponding pocket provided in a preform material; positioning a first electrical conductor longitudinally within a first conduit provided in the preform material; drawing the multi-material fiber by causing the preform material to flow, such that the first electrical conductor extends within the multi-material fiber along a longitudinal axis thereof and makes an electrical contact with a first electrode located on each electrically-connectable device; and overcoating the drawn multi-material fiber with a thermoplastic elastomer material, wherein, at least one of (i) a metallurgical bond is formed between the first electrical conductor and the first electrode while drawing the multi-material fiber or (ii) after drawing the multi-material fiber, the first electrical conductor is located substantially along a neutral axis of the multi-material fiber. positioning each electrically-connectable device within a corresponding pocket provided in a preform material; positioning a first electrical conductor longitudinally within a first conduit provided in the preform material; drawing the multi-material fiber by causing the preform material to flow, such that the first electrical conductor extends within the multi-material fiber along a longitudinal axis thereof and makes an electrical contact with a first electrode located on each electrically-connectable device; and overcoating the drawn multi-material fiber with a thermoplastic elastomer material, wherein, at least one of (i) a metallurgical bond is formed between the first electrical conductor and the first electrode while drawing the multi-material fiber or (ii) after drawing the multi-material fiber, the first electrical conductor is located substantially along a neutral axis of the multi-material fiber.
A fiber-reinforced plastic composition, comprising: a thermoplastic resin, a reactive rubber, wherein the reactive rubber is a Reactor-made thermoplastic poly olefin (RTPO), and a fiber, wherein the thermoplastic resin is a polypropylene resin, and wherein the reactive rubber is present in an amount of from 5 parts by weight to 10 parts by weight with respect to 100 parts by weight of the thermoplastic resin, and wherein the reactive rubber is formed by polymerization of a rubber component onto a polypropylene chain, wherein the rubber component is an ethylene-propylene-based rubber. a thermoplastic resin, a reactive rubber, wherein the reactive rubber is a Reactor-made thermoplastic poly olefin (RTPO), and a fiber, wherein the thermoplastic resin is a polypropylene resin, and wherein the reactive rubber is present in an amount of from 5 parts by weight to 10 parts by weight with respect to 100 parts by weight of the thermoplastic resin, and wherein the reactive rubber is formed by polymerization of a rubber component onto a polypropylene chain, wherein the rubber component is an ethylene-propylene-based rubber.
An apparatus comprising: a printhead to dispense drops of print fluid onto media, wherein the drops travel along a drop path from the printhead through air; a light source to emit light across the drop path; a detector to detect an intensity of the light received from the light source, wherein the drop path intersects an optical path from the light source to the detector; and a coating placed on the optical path between the drop path and the detector, wherein the coating is to absorb light having an incident light intensity below a threshold amount of light intensity, wherein the coating is to absorb the light with a specified energy, characterized in that the specified energy is tunable by a voltage applied across the coating, wherein the voltage adjusts a band gap of the coating. a printhead to dispense drops of print fluid onto media, wherein the drops travel along a drop path from the printhead through air; a light source to emit light across the drop path; a detector to detect an intensity of the light received from the light source, wherein the drop path intersects an optical path from the light source to the detector; and a coating placed on the optical path between the drop path and the detector, wherein the coating is to absorb light having an incident light intensity below a threshold amount of light intensity, wherein the coating is to absorb the light with a specified energy, characterized in that the specified energy is tunable by a voltage applied across the coating, wherein the voltage adjusts a band gap of the coating.