mhurhangee/patent-ind-claim-en huggingface dataset:
A method for controlling a velocity of a conveyance path of a system including an industrial robot , a first conveyance path configured to transfer items within a working area (b2) of the robot with a velocity v 1 , and a second conveyance path configured to transfer empty places for the items within the working area (b2) of the robot with a velocity v 2 , wherein the method includes: - obtaining position data for a plurality of items transferred on the first conveyance path ; - obtaining position data for a plurality of empty places transferred on the second conveyance path ; - creating a plurality of pairs including one of the empty places of the plurality of empty places and a respective item of the plurality of items ; - calculating, for at least two of said pairs, a time t As for the empty place of the one pair and a time t Bk for the item of the one pair to reach a border of the working area (b2) based on position data for the one pair and on the velocities v 1 and v 2 , wherein said calculating is performed for N ≥ 2 pairs starting from the border and the number N depends on the velocities of the first conveyance path and the second conveyance path ; and - controlling the velocity of the second conveyance path based on a difference between the time t As and a time (t Bk +Δt) for all the N pairs, where Δt is a predetermined time difference. - obtaining position data for a plurality of items transferred on the first conveyance path ; - obtaining position data for a plurality of empty places transferred on the second conveyance path ; - creating a plurality of pairs including one of the empty places of the plurality of empty places and a respective item of the plurality of items ; - calculating, for at least two of said pairs, a time t As for the empty place of the one pair and a time t Bk for the item of the one pair to reach a border of the working area (b2) based on position data for the one pair and on the velocities v 1 and v 2 , wherein said calculating is performed for N ≥ 2 pairs starting from the border and the number N depends on the velocities of the first conveyance path and the second conveyance path ; and - controlling the velocity of the second conveyance path based on a difference between the time t As and a time (t Bk +Δt) for all the N pairs, where Δt is a predetermined time difference.
A combined heat and power generation system comprising: an engine using gas as fuel; a generator driven by the engine for producing electric power; an ignition plug provided in a cylinder of the engine for performing ignition according to a cycle of a piston; and a controller for controlling the engine and the ignition plug, wherein when an emergency occurs and an urgent engine stop signal is input to the controller , the controller is configured to change an ignition angle of the ignition plug to reduce an output of the engine , thereby urgently stopping the engine , characterized in that the controller is configured to close the fuel valve before the ignition angle is changed when the engine is urgently stopped, and wherein the emergency is determined when a suction pressure of air/fuel mixture is decreased by 50 hPa or more per second and a rate of revolution of the engine is increased by 20 RPM or more per second. an engine using gas as fuel; a generator driven by the engine for producing electric power; an ignition plug provided in a cylinder of the engine for performing ignition according to a cycle of a piston; and a controller for controlling the engine and the ignition plug, wherein when an emergency occurs and an urgent engine stop signal is input to the controller , the controller is configured to change an ignition angle of the ignition plug to reduce an output of the engine , thereby urgently stopping the engine , characterized in that the controller is configured to close the fuel valve before the ignition angle is changed when the engine is urgently stopped, and wherein the emergency is determined when a suction pressure of air/fuel mixture is decreased by 50 hPa or more per second and a rate of revolution of the engine is increased by 20 RPM or more per second.
Method for analyzing diagnostic image data, comprising performing the following steps with, or on, or using, or by means of, an apparatus comprising an input unit : the input unit obtaining a first diagnostic image and a second diagnostic image of a vessel of interest in a patient's vasculature, defining at least one determination position for the vessel of interest in the first diagnostic image and at least one corresponding determination position for the vessel of interest in the second diagnostic image, determining a first value for at least one functional parameter at the least one determination position for the first diagnostic image and a second value for the same at least one functional parameter at the corresponding determination position for the second diagnostic image, correlating one or more vessel positions along the vessel of interest as represented in the first diagnostic image with one or more vessel positions along the vessel of interest as represented in the second diagnostic image based on a comparing of the first value of the at least one functional parameter and the second value of the at least one functional parameter, registering the first and second diagnostic images. the input unit obtaining a first diagnostic image and a second diagnostic image of a vessel of interest in a patient's vasculature, defining at least one determination position for the vessel of interest in the first diagnostic image and at least one corresponding determination position for the vessel of interest in the second diagnostic image, determining a first value for at least one functional parameter at the least one determination position for the first diagnostic image and a second value for the same at least one functional parameter at the corresponding determination position for the second diagnostic image, correlating one or more vessel positions along the vessel of interest as represented in the first diagnostic image with one or more vessel positions along the vessel of interest as represented in the second diagnostic image based on a comparing of the first value of the at least one functional parameter and the second value of the at least one functional parameter, registering the first and second diagnostic images.
A heavy duty sack comprising a multilayer film, comprising: (a) two outer layers, wherein at least one of the outer layer comprises a first polyethylene having a density of 0.910 to 0.940 g/cm 3 , a melt index (MI), I 2.16 , of 0.1 to 15 g/10 min, a molecular weight distribution (MWD) of 1.5 to 5.5, and a melt index ratio (MIR), I 21.6 /I 2.16 , of 10 to 25; (b) a core layer between the two outer layers, the core layer comprising a second polyethylene having a density of 0.910 to 0.940 g/cm 3 , an MI, I 2.16 , of 0.1 to 15 g/10 min, an MWD of 1.5 to 5.5, and an MIR, I 21.6 /I 2.16 , of 10 to 25; and (c) two inner layers each between the core layer and each outer layer, wherein at least one of the inner layers comprises a third polyethylene having a density of at least 0.940 g/cm 3 ; wherein the multilayer film has: (i) a dart impact (ASTM D1709) of at least 500 g; (ii) a creep resistance (determined according to the method provided in the examples) of no more than 50%, and (iii) a thickness of 80 to 150 μm. (a) two outer layers, wherein at least one of the outer layer comprises a first polyethylene having a density of 0.910 to 0.940 g/cm 3 , a melt index (MI), I 2.16 , of 0.1 to 15 g/10 min, a molecular weight distribution (MWD) of 1.5 to 5.5, and a melt index ratio (MIR), I 21.6 /I 2.16 , of 10 to 25; (b) a core layer between the two outer layers, the core layer comprising a second polyethylene having a density of 0.910 to 0.940 g/cm 3 , an MI, I 2.16 , of 0.1 to 15 g/10 min, an MWD of 1.5 to 5.5, and an MIR, I 21.6 /I 2.16 , of 10 to 25; and (c) two inner layers each between the core layer and each outer layer, wherein at least one of the inner layers comprises a third polyethylene having a density of at least 0.940 g/cm 3 ;
Method for acquiring an image of a celestial body , comprising the following steps: - using a device comprising a hollow body into which light rays coming from a celestial body under observation enter during use, said celestial body under observation being chosen from among at least a first celestial body (50 or 51) of a first nature and a second celestial body (50 or 51) of a second nature, the nature of the first celestial body (50 or 51) being different from the nature of the second celestial body (50 or 51), - arranging an optical system having an optical axis in the hollow body , which optical system is configured such that the light rays form an image of the celestial body under observation in an image focus located in a focal plane , characterized in that it also comprises the following steps: - arranging, in the hollow body , at least a first and a second matrix of optical sensors, each comprising a plurality of pixels configured to acquire the image, respectively of the first celestial body (50 or 51) and of the second celestial body (50 or 51), formed in the image focus , which matrices respectively have pixels of a size different from one another, - selecting one of the matrices and placing it in the image focus , the other matrix remaining outside said image focus, the matrix being selected on the basis of the nature of the celestial body under observation, either the abovementioned first celestial body (50 or 51) of a first nature or the abovementioned second celestial body (50 or 51) of a second nature. - using a device comprising a hollow body into which light rays coming from a celestial body under observation enter during use, said celestial body under observation being chosen from among at least a first celestial body (50 or 51) of a first nature and a second celestial body (50 or 51) of a second nature, the nature of the first celestial body (50 or 51) being different from the nature of the second celestial body (50 or 51), - arranging an optical system having an optical axis in the hollow body , which optical system is configured such that the light rays form an image of the celestial body under observation in an image focus located in a focal plane , - arranging, in the hollow body , at least a first and a second matrix of optical sensors, each comprising a plurality of pixels configured to acquire the image, respectively of the first celestial body (50 or 51) and of the second celestial body (50 or 51), formed in the image focus , which matrices respectively have pixels of a size different from one another, - selecting one of the matrices and placing it in the image focus , the other matrix remaining outside said image focus, the matrix being selected on the basis of the nature of the celestial body under observation, either the abovementioned first celestial body (50 or 51) of a first nature or the abovementioned second celestial body (50 or 51) of a second nature.
A method for depositing a material to join two surfaces of an electronic assembly, the method comprising: providing a substrate having a defined metalized pad area onto which corresponding pads of electronic components can be mounted, the pad area comprising an interfacing contact surface having a perimeter; using a tool to deposit an array of discrete domains of the material in a deposition pattern that extends across the pad area of the substrate , the deposition pattern comprising the array of discrete domains that extends across the pad area of the substrate characterized in that : the array has a tangency (t) with respect to the perimeter of the pad area of about or less than 0.127 millimeters, and a spacing (s) of the array of discrete domains of about 0.001 to about 0.254 millimeters. providing a substrate having a defined metalized pad area onto which corresponding pads of electronic components can be mounted, the pad area comprising an interfacing contact surface having a perimeter; using a tool to deposit an array of discrete domains of the material in a deposition pattern that extends across the pad area of the substrate , the deposition pattern comprising the array of discrete domains that extends across the pad area of the substrate characterized in that : the array has a tangency (t) with respect to the perimeter of the pad area of about or less than 0.127 millimeters, and a spacing (s) of the array of discrete domains of about 0.001 to about 0.254 millimeters.
Wall element for a noise protection wall, wherein the wall element has a body and at least one outer side , wherein the body has a support towards the at least one outer side , wherein at least one solar panel is arranged on the support and is connected to the body , wherein the solar panel is inclined relative to a vertical in the direction of an upper side of the wall element , wherein the body on the at least one outer side has at least one sound absorption surface which can be reached directly by incoming sound, characterized in that the sound absorption surface is inclined at least in some sections relative to the vertical and/or relative to a longitudinal direction of the wall element , wherein the area of the sound absorption surface is at least equal to the area of an elevation view of the wall element .
A method comprising: providing a memory device storing executable data; providing a processing device coupled to the memory device and operable to retrieve and execute the executable data; providing a hardware synchronization component operably coupled to the processing device and including one or more states; concurrently executing a plurality of threads of execution by the processing device; issuing , by the plurality of threads of execution, instructions to the hardware synchronization component, the instructions including, for each state of one or more states, multiple instructions addressed to the each state within a same clock cycle; aggregating , by the hardware synchronization, for each state of the one or more states, the multiple instructions addressed to the each state to obtain an aggregate instruction for the each state; updating , by the hardware synchronization component, each state of the one or more states according to the aggregate instruction for the each state; determining , by the hardware synchronization component, that the one or more states of the hardware synchronization component meet a threshold condition ; in response to determining that the one or more states of the hardware synchronization component meet the threshold condition, outputting , by the hardware synchronization component, an event to the processing device; in response to receiving the event from the hardware synchronization component, altering, by the processing device, execution of at least one thread of the plurality of threads of execution. providing a memory device storing executable data; providing a processing device coupled to the memory device and operable to retrieve and execute the executable data; providing a hardware synchronization component operably coupled to the processing device and including one or more states; concurrently executing a plurality of threads of execution by the processing device; issuing , by the plurality of threads of execution, instructions to the hardware synchronization component, the instructions including, for each state of one or more states, multiple instructions addressed to the each state within a same clock cycle; aggregating , by the hardware synchronization, for each state of the one or more states, the multiple instructions addressed to the each state to obtain an aggregate instruction for the each state; updating , by the hardware synchronization component, each state of the one or more states according to the aggregate instruction for the each state; determining , by the hardware synchronization component, that the one or more states of the hardware synchronization component meet a threshold condition ; in response to determining that the one or more states of the hardware synchronization component meet the threshold condition, outputting , by the hardware synchronization component, an event to the processing device; in response to receiving the event from the hardware synchronization component, altering, by the processing device, execution of at least one thread of the plurality of threads of execution.
A sealing device comprising: i) A waterproofing layer having a first and a second major surface and comprising at least one thermoplastic elastomer P1 and ii) An outer layer of non-woven fabric directly adhered over at least part of its surface to the second major surface of the waterproofing layer through thermal bonding, wherein the outer layer of non-woven fabric comprises at least one polymer P2 and wherein the at least one thermoplastic elastomer P1 and the at least one polymer P2 are compatible with each other and wherein the at least one polymer P2 is selected from the group consisting of polypropylene and polypropylene copolymers and wherein the waterproofing layer has a thickness determined by using the measurement method as defined in DIN EN 1849-2 standard of 0.1 - 5.0 mm. i) A waterproofing layer having a first and a second major surface and comprising at least one thermoplastic elastomer P1 and ii) An outer layer of non-woven fabric directly adhered over at least part of its surface to the second major surface of the waterproofing layer through thermal bonding,
A method, comprising: detecting first and second voltages resulting respectively from first and second hydrophone piezoelectric sensors being subject to an acceleration; comparing the first voltage and the second voltage; and based on the comparing, determining an adjustment for a voltage divider coupled to one of the first and second hydrophone piezoelectric sensors such that the voltage divider causes voltages produced respectively by the first and second hydrophone piezoelectric sensors to match when the first and second hydrophone piezoelectric sensors are subjected to the acceleration, wherein the adjustment for the voltage divider modifies a resistance of a variable resistor included in the voltage divider, and characterized in that the first piezoelectric sensor is coupled across the variable resistor and a fixed in-series resistor included in the voltage divider. detecting first and second voltages resulting respectively from first and second hydrophone piezoelectric sensors being subject to an acceleration; comparing the first voltage and the second voltage; and based on the comparing, determining an adjustment for a voltage divider coupled to one of the first and second hydrophone piezoelectric sensors such that the voltage divider causes voltages produced respectively by the first and second hydrophone piezoelectric sensors to match when the first and second hydrophone piezoelectric sensors are subjected to the acceleration, wherein the adjustment for the voltage divider modifies a resistance of a variable resistor included in the voltage divider, and characterized in that the first piezoelectric sensor is coupled across the variable resistor and a fixed in-series resistor included in the voltage divider.
A manufacturing method for a composite material provided with a reinforcement and resin infused into the reinforcement, comprising: applying an adhesive to the sheet-shaped reinforcement having first and second regions such that a content density of the adhesive of the second region is lower than that of the first region ; and preforming the reinforcement in a three-dimensional shape such that a core material is covered by the reinforcement, and in the preforming, the second region is placed in a portion of the core material having a curvature larger than that of a portion where the first region of the reinforcement is placed. applying an adhesive to the sheet-shaped reinforcement having first and second regions such that a content density of the adhesive of the second region is lower than that of the first region ; and preforming the reinforcement in a three-dimensional shape such that a core material is covered by the reinforcement, and in the preforming, the second region is placed in a portion of the core material having a curvature larger than that of a portion where the first region of the reinforcement is placed.
A method, comprising: arranging over a substrate at least one semiconductor chip and a plurality of current-carrying formations coupled to the at least one semiconductor chip , characterized in that the substrate is exempt from electrically conductive formations coupling the current-carrying formations in the plurality of current-carrying formations , and forming at least one electrical contact (162; 162A, 162B) between adjacent current-carrying formations in the plurality of current-carrying formations , wherein adjacent current-carrying formations having at least one contact (162; 162A, 162B) formed therebetween are coupled into a multi-formation current-carrying channel (CH#1). arranging over a substrate at least one semiconductor chip and a plurality of current-carrying formations coupled to the at least one semiconductor chip , characterized in that the substrate is exempt from electrically conductive formations coupling the current-carrying formations in the plurality of current-carrying formations , and forming at least one electrical contact (162; 162A, 162B) between adjacent current-carrying formations in the plurality of current-carrying formations , wherein adjacent current-carrying formations having at least one contact (162; 162A, 162B) formed therebetween are coupled into a multi-formation current-carrying channel (CH#1).
Reinforcement structure for a crown and root tooth restoration comprising: - a plurality of reinforcement pins , - an additional pin made from a material etched more quickly than the plurality of reinforcement pins so as to form an etching canal , - joining means configured to group the plurality of reinforcement pins and the additional pin together so as to form a bundle of pins, said joining means partially covering the length of the reinforcement pins , the additional pin being fixed directly or indirectly to the joining means between the reinforcement pins , the joining means being configured to hold the reinforcement pins together when handled in such a way that it is possible to remove reinforcement rods one by one or in small quantities, reinforcement pins , the additional pin being fixed to an adjacent at least one reinforcement pin over at least 70% of its length and/or locally by means of a plurality of attachment points distinct from one another. - a plurality of reinforcement pins , - an additional pin made from a material etched more quickly than the plurality of reinforcement pins so as to form an etching canal , - joining means configured to group the plurality of reinforcement pins and the additional pin together so as to form a bundle of pins, said joining means partially covering the length of the reinforcement pins , the additional pin being fixed directly or indirectly to the joining means between the reinforcement pins ,