mhurhangee/patent-ind-claim-en huggingface dataset:
Method of estimating a surface quality of a workpiece the method comprising - finishing a surface of the workpiece with a manufacturing device (S1), - determining a reference signal representing a time dependent difference between an ideal tool position and a real tool position of a tool of the manufacturing device in a reference phase when finishing the workpiece (S2), - determining a test signal representing a time dependent difference between an ideal tool position and a real tool position of a tool of the manufacturing device in an operation phase when finishing the workpiece (S3), - wherein the method is only performed, if the reference signal and the test signal relate to a finishing operation of the manufacturing device , - determining a mean value (μ) and a standard deviation value (σ) from the reference signal (S7), - determining data points of the test signal , where the test signal deviates from the mean value (μ) more than a defined multiple of the standard deviation value (σ) (S8), and - estimating the surface quality of the workpiece by using the determined data points (S9), characterised in that - the step of determining a mean value (μ) and a standard deviation value (σ) from the reference signal is performed for data points of a sliding window - the size of the sliding window is individually defined for the specific workpiece to be finished, and a finishing speed is a parameter when adjusting a sliding window size - finishing a surface of the workpiece with a manufacturing device (S1), - determining a reference signal representing a time dependent difference between an ideal tool position and a real tool position of a tool of the manufacturing device in a reference phase when finishing the workpiece (S2), - determining a test signal representing a time dependent difference between an ideal tool position and a real tool position of a tool of the manufacturing device in an operation phase when finishing the workpiece (S3), - wherein the method is only performed, if the reference signal and the test signal relate to a finishing operation of the manufacturing device , - determining a mean value (μ) and a standard deviation value (σ) from the reference signal (S7), - determining data points of the test signal , where the test signal deviates from the mean value (μ) more than a defined multiple of the standard deviation value (σ) (S8), and - estimating the surface quality of the workpiece by using the determined data points (S9), characterised in that - the step of determining a mean value (μ) and a standard deviation value (σ) from the reference signal is performed for data points of a sliding window - the size of the sliding window is individually defined for the specific workpiece to be finished, and a finishing speed is a parameter when adjusting a sliding window size
A heat pipe comprising: an evaporator configured to vaporize a working fluid (C); a condenser configured to condense the vaporized working fluid (CV); a liquid pipe connecting the evaporator and the condenser ; a vapor pipe connecting the evaporator and the condenser , the vapor pipe forming a loop with the liquid pipe ; and an inlet port for injecting the working fluid (C) into the liquid pipe , the condenser or the vapor pipe before the inlet port is hermetically sealed, characterized in that the inlet port includes an unsealed part and a sealed part that connect to each other, the unsealed part and the sealed part respectively including a plurality of metal layers, the plurality of metal layers being a first outermost layer , a plurality of intermediate layers (902-905) stacked on the first outermost layer , and a second outermost layer stacked on the plurality of intermediate layers (902-905), wherein each of the plurality of metal layers of the sealed part contacts one or more of other metal layers among the plurality of metal layers to hermetically seal the inlet port , and wherein the sealed part includes at least three regions (R1-R5) that are different in a number of interfaces of metal layers in a stacking direction of the plurality of metal layers, the at least three regions (R1-R5) being arranged in a direction perpendicular to the stacking direction. an evaporator configured to vaporize a working fluid (C); a condenser configured to condense the vaporized working fluid (CV); a liquid pipe connecting the evaporator and the condenser ; a vapor pipe connecting the evaporator and the condenser , the vapor pipe forming a loop with the liquid pipe ; and an inlet port for injecting the working fluid (C) into the liquid pipe , the condenser or the vapor pipe before the inlet port is hermetically sealed, characterized in that the inlet port includes an unsealed part and a sealed part that connect to each other, the unsealed part and the sealed part respectively including a plurality of metal layers, the plurality of metal layers being a first outermost layer , a plurality of intermediate layers (902-905) stacked on the first outermost layer , and a second outermost layer stacked on the plurality of intermediate layers (902-905), wherein each of the plurality of metal layers of the sealed part contacts one or more of other metal layers among the plurality of metal layers to hermetically seal the inlet port , and wherein the sealed part includes at least three regions (R1-R5) that are different in a number of interfaces of metal layers in a stacking direction of the plurality of metal layers, the at least three regions (R1-R5) being arranged in a direction perpendicular to the stacking direction.
A size press formulation comprising solids, the solids comprising a polyaluminium chloride compound (PAC) and starch, wherein the PAC is phosphated polyaluminum chloride.
A method, comprising: entering , by a computing device (100; 400), an advanced configuration and power interface, ACPI, S0 state; in response to receiving (220; 330) a request to enter an ACPI S3 state, determining (230; 335) whether an always on feature is enabled, wherein, if the always on feature is not enabled, entering (240; 340) the ACPI S3 state, and wherein, if the always on feature is enabled, determining (250; 345) whether the computing device (100; 400) is within a user-defined permissible ACPI S3 state period, wherein, if the computing device (100; 400) is not within a user-defined permissible ACPI S3 state period, continuing computing device (100; 400) operation in the ACPI S0 state, and wherein, if the computing device (100; 400) is within the user-defined permissible ACPI S3 state period, setting (260; 350) a wake event and entering (240; 340) the ACPI S3 state. entering , by a computing device (100; 400), an advanced configuration and power interface, ACPI, S0 state; in response to receiving (220; 330) a request to enter an ACPI S3 state, determining (230; 335) whether an always on feature is enabled, wherein, if the always on feature is not enabled, entering (240; 340) the ACPI S3 state, and wherein, if the always on feature is enabled, determining (250; 345) whether the computing device (100; 400) is within a user-defined permissible ACPI S3 state period, wherein, if the computing device (100; 400) is not within a user-defined permissible ACPI S3 state period, continuing computing device (100; 400) operation in the ACPI S0 state, and wherein, if the computing device (100; 400) is within the user-defined permissible ACPI S3 state period, setting (260; 350) a wake event and entering (240; 340) the ACPI S3 state. wherein, if the always on feature is not enabled, entering (240; 340) the ACPI S3 state, and wherein, if the always on feature is enabled, determining (250; 345) whether the computing device (100; 400) is within a user-defined permissible ACPI S3 state period, wherein, if the computing device (100; 400) is not within a user-defined permissible ACPI S3 state period, continuing computing device (100; 400) operation in the ACPI S0 state, and wherein, if the computing device (100; 400) is within the user-defined permissible ACPI S3 state period, setting (260; 350) a wake event and entering (240; 340) the ACPI S3 state. wherein, if the computing device (100; 400) is not within a user-defined permissible ACPI S3 state period, continuing computing device (100; 400) operation in the ACPI S0 state, and wherein, if the computing device (100; 400) is within the user-defined permissible ACPI S3 state period, setting (260; 350) a wake event and entering (240; 340) the ACPI S3 state.
Adaptive blade for a laryngoscope , comprising: a proximal end , which is mechanically connectable or connected to a handle in order to form an adaptive laryngoscope ; a first flexible bar , which extends from the proximal end of the adaptive blade to the distal end thereof; a second flexible bar , which extends from the proximal end of the adaptive blade to the distal end thereof; a connecting structure with a first end , which is connected to the first flexible bar in an articulated manner, and with a second end , which is connected to the second flexible bar in an articulated manner, wherein the first flexible bar is formed by a first member made of a first material and a second member made of a second material, wherein an interface between the first member and the second member extends over at least half the distance between the proximal end and the distal end of the adaptive blade , wherein the first member is a core member, wherein the second member is a jacket member in which the first member is at least partially embedded. a proximal end , which is mechanically connectable or connected to a handle in order to form an adaptive laryngoscope ; a first flexible bar , which extends from the proximal end of the adaptive blade to the distal end thereof; a second flexible bar , which extends from the proximal end of the adaptive blade to the distal end thereof; a connecting structure with a first end , which is connected to the first flexible bar in an articulated manner, and with a second end , which is connected to the second flexible bar in an articulated manner, wherein the first flexible bar is formed by a first member made of a first material and a second member made of a second material, wherein an interface between the first member and the second member extends over at least half the distance between the proximal end and the distal end of the adaptive blade , wherein the first member is a core member, wherein the second member is a jacket member in which the first member is at least partially embedded.
A compressor comprising: a compressor main body ; a base that is fixed on a foundation (F) and supports the compressor main body from below in a vertical direction (Dr); and a connecting part that detachably connects the compressor main body and the base to each other, wherein the compressor main body includes a tubular casing , a rotor that is provided within the casing and is rotatable around an axis (O), a bearing part that rotatably supports the rotor with respect to the casing , characterized by comprising a protruding pipe that allows a communication between an inside and an outside of the casing and protrudes outward from an outer peripheral surface of the casing , and the base includes a support base having a support surface for supporting a lower part of the casing , and a connection pipe that extends downward from the support base in the vertical direction and has a through-hole into which the protruding pipe is insertable. a compressor main body ; a base that is fixed on a foundation (F) and supports the compressor main body from below in a vertical direction (Dr); and a connecting part that detachably connects the compressor main body and the base to each other, wherein the compressor main body includes a tubular casing , a rotor that is provided within the casing and is rotatable around an axis (O), a bearing part that rotatably supports the rotor with respect to the casing , characterized by comprising a protruding pipe that allows a communication between an inside and an outside of the casing and protrudes outward from an outer peripheral surface of the casing , and a tubular casing , a rotor that is provided within the casing and is rotatable around an axis (O), a bearing part that rotatably supports the rotor with respect to the casing , characterized by comprising a protruding pipe that allows a communication between an inside and an outside of the casing and protrudes outward from an outer peripheral surface of the casing , and the base includes a support base having a support surface for supporting a lower part of the casing , and a connection pipe that extends downward from the support base in the vertical direction and has a through-hole into which the protruding pipe is insertable. a support base having a support surface for supporting a lower part of the casing , and a connection pipe that extends downward from the support base in the vertical direction and has a through-hole into which the protruding pipe is insertable.
An oral care composition comprising: a. serine in an amount of 0.05 weight % to 0.8 weight % based on the total weight of the composition; and b. zinc oxide and zinc citrate in a weight ratio of zinc oxide to zinc citrate of 1.5:1 to 4.5:1. a. serine in an amount of 0.05 weight % to 0.8 weight % based on the total weight of the composition; and b. zinc oxide and zinc citrate in a weight ratio of zinc oxide to zinc citrate of 1.5:1 to 4.5:1.
A time configuration method, wherein the method comprises: determining (S601), by a network device, a sending time of a reference signal according to an on duration period of user equipment, UE, wherein the reference signal is a channel state information-reference signal, CSI-RS, used for mobility measurement; and wherein the on duration period refers to a DRX configuration; wherein the on duration period of the UE comprises an overlapping on duration period of at least two of all the UEs that need to receive the reference signal; sending, by the network device, the reference signal to the UE. determining (S601), by a network device, a sending time of a reference signal according to an on duration period of user equipment, UE, wherein the reference signal is a channel state information-reference signal, CSI-RS, used for mobility measurement; and wherein the on duration period refers to a DRX configuration; wherein the on duration period of the UE comprises an overlapping on duration period of at least two of all the UEs that need to receive the reference signal; sending, by the network device, the reference signal to the UE.
A method of forming an endless belt of a papermaking machine, comprising: printing polymeric material on a print medium along a print direction in a series of printing steps, with the polymeric material being printed a predetermined distance along the print direction in each printing step; after each printing step, indexing the print medium in a cross direction that is transverse to the print direction, wherein the print medium provides an endless surface so that the printing of the polymeric material results in at least one layer of polymeric material that forms the endless belt wherein the print medium is a conveyor belt , and the method further comprises: providing a substrate on the conveyor belt prior to printing the polymeric material ; and laminating the substrate with the printed polymeric material , wherein the step of laminating comprises a method selected from the group consisting of the use of adhesive, solvent bonding, laser bonding, ultrasonic lamination and combinations thereof. printing polymeric material on a print medium along a print direction in a series of printing steps, with the polymeric material being printed a predetermined distance along the print direction in each printing step; after each printing step, indexing the print medium in a cross direction that is transverse to the print direction, wherein the print medium provides an endless surface so that the printing of the polymeric material results in at least one layer of polymeric material that forms the endless belt wherein the print medium is a conveyor belt , and the method further comprises: providing a substrate on the conveyor belt prior to printing the polymeric material ; and laminating the substrate with the printed polymeric material , wherein the step of laminating comprises a method selected from the group consisting of the use of adhesive, solvent bonding, laser bonding, ultrasonic lamination and combinations thereof. providing a substrate on the conveyor belt prior to printing the polymeric material ; and laminating the substrate with the printed polymeric material , wherein the step of laminating comprises a method selected from the group consisting of the use of adhesive, solvent bonding, laser bonding, ultrasonic lamination and combinations thereof.
Heat-sink system for a conductive contact wire of a catenary that can extend longitudinally above the contact wire by having a portion of securing to the contact wire which leaves the zone of contact of said contact wire with the pantograph of a locomotive free, wherein said heat-sink system is made of two half-profiles (20a, 20b; 20a', 20b'; 20a", 20b") held secured to one another by clamping means , and the securing portion comprises two lugs (17a, 17b; 17a', 17b'; 17a", 17b") of V-shaped profile which are intended to engage in two longitudinal grooves produced on the contact wire and the profile of which coincides with the profile of the two lugs (17a, 17b; 17a', 17b'; 17a", 17b"), said heat-sink system is made of an electrically and thermally conductive material and comprises mechanical and/or electrical link means which are formed in the upper part of said heat-sink system and comprise two longitudinal grooves of V-shaped profile which face one another on either side of a joining zone of the two half-profiles (20a, 20b; 20a', 20b'; 20a", 20b"), and which are respectively formed on each half-profile , characterized in that the V-shaped profile of the two longitudinal grooves of the mechanical and/or electrical link means coincides with the profile of the lugs (17a, 17b; 17a', 17b'; 17a", 17b") of the securing portion , these longitudinal grooves being able to form a recess for engagement of lugs of V-shaped profile which can engage in the two longitudinal grooves produced on the contact wire .
A semiconductor detector head, comprising: - a detector chip having a front side and a back side, - a substrate on the back side of said detector chip , - contact points on at least one of said substrate and said detector chip for providing electrical connection to the detector chip , characterized in that it further comprises: - a first set of protruding contact pins arranged in a ring on an opposite side of said substrate than said detector chip , wherein at least one of the contact pins of said first set is conductively coupled to at least one of said contact points , - a base plate , - a second set of contact pins arranged in a ring and protruding from said base plate towards the contact pins of said first set, and - electric connections between matching pairs of contact pins of said first and second sets, wherein in each matching pair the respective ends of a pin from said first set and a pin from said second set are arranged close to or into contact with each other, and - a thermoelectric cooler arranged between said base plate and said substrate within the ring defined by the first and second sets of contact pins . - a detector chip having a front side and a back side, - a substrate on the back side of said detector chip , - contact points on at least one of said substrate and said detector chip for providing electrical connection to the detector chip , - a first set of protruding contact pins arranged in a ring on an opposite side of said substrate than said detector chip , wherein at least one of the contact pins of said first set is conductively coupled to at least one of said contact points , - a base plate , - a second set of contact pins arranged in a ring and protruding from said base plate towards the contact pins of said first set, and - electric connections between matching pairs of contact pins of said first and second sets, wherein in each matching pair the respective ends of a pin from said first set and a pin from said second set are arranged close to or into contact with each other, and - a thermoelectric cooler arranged between said base plate and said substrate within the ring defined by the first and second sets of contact pins .
Method for controlling a headlight of a motor vehicle when a full beam function is activated, wherein light is emitted by means of the headlight, in accordance with a light distribution corresponding to a full beam, wherein - an object is sensed by means of an object sensor in a region of the light output, - an evaluation unit determines whether the object is a road user, and - only if the object is a road user, the light output is reduced in an object region of the object , characterised in that , in order to reduce the light output in the object region of the object - a width of the object region is determined, - two parallel sidelines are determined centrally with respect to the width, which are used to provide vertical light-dark boundaries, in order to define a light-dark boundary relative to the light output by the headlight. - the sidelines are moved outwards in opposite directions to each other and transversely to their extent to a predeterminable maximum distance of the sidelines from each other, wherein the maximum distance is greater than the width of the object region, - after reaching the maximum distance , the sidelines are moved towards each other, until the sidelines reach the width of the object region, and - the headlight is controlled such that the light output is reduced in a region bounded laterally by the sidelines . - an object is sensed by means of an object sensor in a region of the light output, - an evaluation unit determines whether the object is a road user, and - only if the object is a road user, the light output is reduced in an object region of the object , characterised in that , in order to reduce the light output in the object region of the object - a width of the object region is determined, - two parallel sidelines are determined centrally with respect to the width, which are used to provide vertical light-dark boundaries, in order to define a light-dark boundary relative to the light output by the headlight. - the sidelines are moved outwards in opposite directions to each other and transversely to their extent to a predeterminable maximum distance of the sidelines from each other, wherein the maximum distance is greater than the width of the object region, - after reaching the maximum distance , the sidelines are moved towards each other, until the sidelines reach the width of the object region, and - the headlight is controlled such that the light output is reduced in a region bounded laterally by the sidelines .