mhurhangee/patent-ind-claim-en huggingface dataset:
An impact tool comprising: a motor ; an output block configured to hold a tip tool thereon; a hammer configured to receive motive power from the motor and collide against the output block ; and a magnetostrictive sensor including: a magnetostrictive member ; and a coil portion covering the magnetostrictive member , the hammer including: a hammer body ; and a hammer claw connected to the hammer body , 2. characterised in that the output block includes: a claw block including an anvil claw , against which the hammer claw collides, and subjected to quenching treatment; and a body block including a thermally sprayed portion and coupled to the claw block , the thermally sprayed portion including, on a surface thereof, the magnetostrictive member made of a magnetostrictive material. a motor ; an output block configured to hold a tip tool thereon; a hammer configured to receive motive power from the motor and collide against the output block ; and a magnetostrictive sensor including: a magnetostrictive member ; and a coil portion covering the magnetostrictive member , the hammer including: a hammer body ; and a hammer claw connected to the hammer body , 2. characterised in that the output block includes: a claw block including an anvil claw , against which the hammer claw collides, and subjected to quenching treatment; and a body block including a thermally sprayed portion and coupled to the claw block , the thermally sprayed portion including, on a surface thereof, the magnetostrictive member made of a magnetostrictive material. a claw block including an anvil claw , against which the hammer claw collides, and subjected to quenching treatment; and a body block including a thermally sprayed portion and coupled to the claw block , the thermally sprayed portion including, on a surface thereof, the magnetostrictive member made of a magnetostrictive material.
A composition comprising the following components: A) an ethylene/a-olefin block copolymer; B) a tackifier; and wherein the composition has a melt index from 1 to 50 g/10 min, and an 110/12 ratio from 7.5 to 13; wherein component A is present in an amount greater than, or equal to, 50 weight percent, based on the weight of the composition. A) an ethylene/a-olefin block copolymer; B) a tackifier; and
Method for plantation treatment of a plantation field, the method comprising: taking (S10) an image of a plantation of a plantation field ; recognizing (S20) items on the taken image by running a first image recognition analysis of a first complexity on the taken image based on a stored parametrization (P) of a machine learning algorithm; identifying (S30) an unsatisfying image analysis result (R); determining (S40) ambient data corresponding to the taken image ; recognizing (S50) items on the taken image by running a second image recognition analysis of a second complexity on the image based on the ambient data on an external device , wherein the second complexity is higher than the first complexity; determining (S60) an improved parametrization (PI) based on the second image recognition analysis for the machine learning algorithm for improving the first image recognition analysis; and controlling (S70) - via a treatment control interface - a treatment arrangement of a treatment device based on the first image recognition analysis on the taken image based on the updated improved parametrization. taking (S10) an image of a plantation of a plantation field ; recognizing (S20) items on the taken image by running a first image recognition analysis of a first complexity on the taken image based on a stored parametrization (P) of a machine learning algorithm; identifying (S30) an unsatisfying image analysis result (R); determining (S40) ambient data corresponding to the taken image ; recognizing (S50) items on the taken image by running a second image recognition analysis of a second complexity on the image based on the ambient data on an external device , wherein the second complexity is higher than the first complexity; determining (S60) an improved parametrization (PI) based on the second image recognition analysis for the machine learning algorithm for improving the first image recognition analysis; and controlling (S70) - via a treatment control interface - a treatment arrangement of a treatment device based on the first image recognition analysis on the taken image based on the updated improved parametrization.
Metal sealing system for a triple eccentricity butterfly valve comprising: - a dynamic metal seal , comprising a metal core surrounded by an external coating , - a metal case with an inclined conical external surface , comprising: a first housing inside which the dynamic metal seal is mounted, and a second housing formed by a cut-out in the upper face or in the lower face of the metal case, - a metal cover , attached to the second housing of the metal case to allow it to close by flush fitting of the upper or lower faces of the metal cover and the metal case , the dynamic metal seal being located between the metal cover and the surface of the metal case defining the first housing . - a dynamic metal seal , comprising a metal core surrounded by an external coating , - a metal case with an inclined conical external surface , comprising: a first housing inside which the dynamic metal seal is mounted, and a second housing formed by a cut-out in the upper face or in the lower face of the metal case, - a metal cover , attached to the second housing of the metal case to allow it to close by flush fitting of the upper or lower faces of the metal cover and the metal case , the dynamic metal seal being located between the metal cover and the surface of the metal case defining the first housing .
A system comprising: a component stack of a mechanical system, said stack comprising a plurality of components arranged on a shaft between a stack end integrally formed with the shaft and a stack nut ; a memory system configured to store a plurality of instructions; and a processing system configured to communicate with the memory system and execute the instructions that result in: determining an initial torque applied to the component stack wherein the initial torque closes gaps between the components; determining an assembly torque and an angle of turn applied to the component stack after the initial torque is applied; determining a friction value associated with the component stack , wherein the friction value comprises a friction torque ratio based on the initial torque, the assembly torque, and the angle of turn; determining a stack load of the component stack based on the friction value, the assembly torque, and the angle of turn, wherein the stack load is determined between the stack end of the component stack and the stack nut ; and outputting an indicator of the stack load. a memory system configured to store a plurality of instructions; and a processing system configured to communicate with the memory system and execute the instructions that result in: determining an initial torque applied to the component stack wherein the initial torque closes gaps between the components; determining an assembly torque and an angle of turn applied to the component stack after the initial torque is applied; determining a friction value associated with the component stack , wherein the friction value comprises a friction torque ratio based on the initial torque, the assembly torque, and the angle of turn; determining a stack load of the component stack based on the friction value, the assembly torque, and the angle of turn, wherein the stack load is determined between the stack end of the component stack and the stack nut ; and outputting an indicator of the stack load. determining an initial torque applied to the component stack wherein the initial torque closes gaps between the components; determining an assembly torque and an angle of turn applied to the component stack after the initial torque is applied; determining a friction value associated with the component stack , wherein the friction value comprises a friction torque ratio based on the initial torque, the assembly torque, and the angle of turn; determining a stack load of the component stack based on the friction value, the assembly torque, and the angle of turn, wherein the stack load is determined between the stack end of the component stack and the stack nut ; and outputting an indicator of the stack load.
An acoustic feedback canceling module comprising: a conversion module configured to convert an input audio signal to the frequency domain; a detection module configured to detect and estimate howling frequency candidates, the detection based on a howling to noise ratio (HNR), wherein the howling frequency is calculated based on determining a peak magnitude for an FFT bin norm and the FFT norms for the FFT bins immediately before and after the peak magnitude FFT bin and choosing these bins as candidates for the estimated howling frequency; a filter design module configured to provide filter coefficients for the adaptive design for removal of the estimated howling frequency; and a filter placed in line with the audio input signal to remove the estimated howling frequency. a conversion module configured to convert an input audio signal to the frequency domain; a detection module configured to detect and estimate howling frequency candidates, the detection based on a howling to noise ratio (HNR), wherein the howling frequency is calculated based on determining a peak magnitude for an FFT bin norm and the FFT norms for the FFT bins immediately before and after the peak magnitude FFT bin and choosing these bins as candidates for the estimated howling frequency; a filter design module configured to provide filter coefficients for the adaptive design for removal of the estimated howling frequency; and a filter placed in line with the audio input signal to remove the estimated howling frequency.
A method for embedding an integrated circuit into a 3D-printed object , the method comprising: - providing a filament comprising a material for 3D-printing an object , and an integrated circuit embedded within the filament ; and - using the filament to form the 3D-printed object , wherein providing the filament further comprises providing the filament comprising the material for 3D-printing an object , the integrated circuit coupled to an antenna, the integrated circuit and the antenna embedded within the filament , characterized in that the antenna comprises two wires , each wire having a first end coupled to the integrated circuit and a second end coupled to a magnet , and wherein during using the filament to form the 3D-printed object , the filament is melted to a relatively low viscosity around the magnets and antenna so that a magnetic attraction between the magnets results in the magnets coupling together and forming a loop antenna ; or in that the antenna comprises only one wire segment, said wire segment having a first end coupled to the integrated circuit and a second end coupled to a first magnet, a second magnet being directly attached to the integrated circuit , and wherein during using the filament to form the 3D-printed object , the filament is melted to a relatively low viscosity around the first magnet, second magnet and antenna so that a magnetic attraction between the first magnet and the second magnet results in the first magnet and the second magnet coupling together and forming a loop antenna . - providing a filament comprising a material for 3D-printing an object , and an integrated circuit embedded within the filament ; and - using the filament to form the 3D-printed object , wherein providing the filament further comprises providing the filament comprising the material for 3D-printing an object , the integrated circuit coupled to an antenna, the integrated circuit and the antenna embedded within the filament , characterized in that the antenna comprises two wires , each wire having a first end coupled to the integrated circuit and a second end coupled to a magnet , and wherein during using the filament to form the 3D-printed object , the filament is melted to a relatively low viscosity around the magnets and antenna so that a magnetic attraction between the magnets results in the magnets coupling together and forming a loop antenna ; or in that the antenna comprises only one wire segment, said wire segment having a first end coupled to the integrated circuit and a second end coupled to a first magnet, a second magnet being directly attached to the integrated circuit , and wherein during using the filament to form the 3D-printed object , the filament is melted to a relatively low viscosity around the first magnet, second magnet and antenna so that a magnetic attraction between the first magnet and the second magnet results in the first magnet and the second magnet coupling together and forming a loop antenna .
An infusion set configured to be secured to a skin surface for targeting a desired depth to deliver medicaments to an upper 3 mm of said skin, comprising: a hub and a needle having a base, the needle and base being configured to travel during insertion as urged by a motion; and an insertion track included in the hub upon which the needle base is configured to travel during insertion as urged by the motion; wherein said needle is configured to assume a first angle relative to a base of the hub in a free state, said base of the hub having an adhesive layer configured to secure the hub to the skin surface ; wherein said needle is configured such that it is deflected towards the base of the hub to a second angle relative to the skin surface via contact with said skin surface but prior to application of said motion; wherein said needle is configured to travel along the track at a third angle relative to said skin surface during application of said motion and to move axially and radially when the skin exerts an opposing force on the needle ; and wherein said needle is configured such that, upon release of said motion, the needle returns towards the first angle and assumes a final angle relative to said skin surface that is different from said first angle of said needle ; wherein the angle of the user motion is different than the final angle. a hub and a needle having a base, the needle and base being configured to travel during insertion as urged by a motion; and an insertion track included in the hub upon which the needle base is configured to travel during insertion as urged by the motion; wherein said needle is configured to assume a first angle relative to a base of the hub in a free state, said base of the hub having an adhesive layer configured to secure the hub to the skin surface ; wherein said needle is configured such that it is deflected towards the base of the hub to a second angle relative to the skin surface via contact with said skin surface but prior to application of said motion; wherein said needle is configured to travel along the track at a third angle relative to said skin surface during application of said motion and to move axially and radially when the skin exerts an opposing force on the needle ; and wherein said needle is configured such that, upon release of said motion, the needle returns towards the first angle and assumes a final angle relative to said skin surface that is different from said first angle of said needle ; wherein the angle of the user motion is different than the final angle.
A personal care composition comprising: (i) gingerdiol having the chemical structure; 1-(4-hydroxy-3-methoxyphenyl) decane-3,5-diol; (ii) niacinamide; and (iii) a cosmetically acceptable base. (i) gingerdiol having the chemical structure; 1-(4-hydroxy-3-methoxyphenyl) decane-3,5-diol; (ii) niacinamide; and (iii) a cosmetically acceptable base.
Soil cultivation machine having - a plurality of rotationally driven rotary tools that are arranged in a frame and carry cultivation tools ; and - at least one side plate arrangement , which comprises a side plate , arranged in a manner spaced apart laterally from the rotary tools , and at least one support arm , wherein the at least one support arm carries the side plate ; and - at least one adjusting arrangement , wherein the at least one side plate arrangement is able to be brought into at least two different distances of the side plate laterally with respect to the rotary tools by means of the adjusting arrangement ; characterized in that the adjusting arrangement comprises at least one pivot axle and at least one pivot lever , in that the support arm is articulated in a pivotable manner to the pivot lever in a manner spaced apart therefrom, in that the pivot lever is arranged on the frame in a rotatable manner via the pivot axle , and in that the side plate arrangement is able to be fixed at the different, lateral distances by the pivot lever being rotated about the pivot axle . - a plurality of rotationally driven rotary tools that are arranged in a frame and carry cultivation tools ; and - at least one side plate arrangement , which comprises a side plate , arranged in a manner spaced apart laterally from the rotary tools , and at least one support arm , wherein the at least one support arm carries the side plate ; and - at least one adjusting arrangement , wherein the at least one side plate arrangement is able to be brought into at least two different distances of the side plate laterally with respect to the rotary tools by means of the adjusting arrangement ;
A sealing ledge system for use as intended in a suction roll for dewatering sheet material, wherein the sealing ledge system is used to laterally seal at least one suction box on the inside of the suction roll and comprises at least one sealing ledge (1.1, 2.1), wherein the sealing ledge (1.1, 2.1) is designed to seal off the suction box from the roll shell of the suction roll and the sealing ledge (1.1, 2.1) has a surface which faces the inner side of the roll shell when the sealing ledge system is used in the suction roll, wherein at least two temperature sensors (6.1) are included or inserted in at least one sealing ledge (1.1, 2.1), characterised in that at least one temperature sensor (6.1) has a larger distance than the other(s) from that surface of the sealing ledge (1.1, 2.1) which faces the inside of the roll shell when used as intended. characterised in that at least one temperature sensor (6.1) has a larger distance than the other(s) from that surface of the sealing ledge (1.1, 2.1) which faces the inside of the roll shell when used as intended.
A method of controlling a first vehicle , the method comprising: while maneuvering the first vehicle in an autonomous driving mode, identifying, by one or more processors, a second vehicle; identifying, by the one or more processors, geometry for a future trajectory of the first vehicle ; identifying, by the one or more processors, an initial allowable discomfort value; attempting, by the one or more processors, to determine a speed profile for the geometry that meets the initial allowable discomfort value by determining a discomfort value for the speed profile based on a set of factors relating to at least discomfort of a passenger of the first vehicle and discomfort of a passenger of the second vehicle; when a speed profile that meets the initial allowable discomfort value cannot be determined, adjusting, by the one or more processors, the initial allowable discomfort value until a speed profile that meets an adjusted allowable discomfort value is determined; and using, by the one or more processors, the speed profile that meets the adjusted allowable discomfort value to control the first vehicle in the autonomous driving mode. while maneuvering the first vehicle in an autonomous driving mode, identifying, by one or more processors, a second vehicle; identifying, by the one or more processors, geometry for a future trajectory of the first vehicle ; identifying, by the one or more processors, an initial allowable discomfort value; attempting, by the one or more processors, to determine a speed profile for the geometry that meets the initial allowable discomfort value by determining a discomfort value for the speed profile based on a set of factors relating to at least discomfort of a passenger of the first vehicle and discomfort of a passenger of the second vehicle; when a speed profile that meets the initial allowable discomfort value cannot be determined, adjusting, by the one or more processors, the initial allowable discomfort value until a speed profile that meets an adjusted allowable discomfort value is determined; and using, by the one or more processors, the speed profile that meets the adjusted allowable discomfort value to control the first vehicle in the autonomous driving mode.
A two-pack coating composition comprising a main resin and a curing agent, wherein the main resin comprises a polyol, a curing catalyst, and a light stabilizer, the curing agent comprises an isocyanurate compound, a hydroxyl value of the polyol is 300 mg KOH/g or more and 1000 mg KOH/g or less, an average number of hydroxy groups of the polyol is 3 or more, a content of the curing catalyst is 0.25 parts by mass or more and 10 parts by mass or less based on 100 parts by mass of the polyol, the light stabilizer comprises a hindered amine-based compound, a common logarithm pKb of a base dissociation constant of the hindered amine-based compound is 6.5 or more and 14 or less, and a content of a solvent is 30% by mass or less. the main resin comprises a polyol, a curing catalyst, and a light stabilizer, the curing agent comprises an isocyanurate compound, a hydroxyl value of the polyol is 300 mg KOH/g or more and 1000 mg KOH/g or less, an average number of hydroxy groups of the polyol is 3 or more, a content of the curing catalyst is 0.25 parts by mass or more and 10 parts by mass or less based on 100 parts by mass of the polyol, the light stabilizer comprises a hindered amine-based compound, a common logarithm pKb of a base dissociation constant of the hindered amine-based compound is 6.5 or more and 14 or less, and a content of a solvent is 30% by mass or less.
Oily composition of nonsteroidal anti-inflammatory drug (NSAID) for parenteral administration comprising: - at least one NSAID bearing an acidic function; and - a biocompatible oily vehicle; said composition being characterised in that : - said NSAID bearing an acidic function is ketoprofen; - said NSAID is in free acid form, - said NSAID meets the following specifications: a median diameter D (v,0.5), value of which 50% of the distribution is inferior or equal, of 25μm and a value D (v,0.9), for which 90% of the distribution is inferior or equal, of 80μm; the values of D (v,0.5) and D (v,0.9) being measured by a Laser Mastersizer 2000 granulometer; and - said composition does not contain an added liquid agent capable of solubilising said NSAID. - at least one NSAID bearing an acidic function; and - a biocompatible oily vehicle; - said NSAID bearing an acidic function is ketoprofen; - said NSAID is in free acid form, - said NSAID meets the following specifications: a median diameter D (v,0.5), value of which 50% of the distribution is inferior or equal, of 25μm and a value D (v,0.9), for which 90% of the distribution is inferior or equal, of 80μm; the values of D (v,0.5) and D (v,0.9) being measured by a Laser Mastersizer 2000 granulometer; and - said composition does not contain an added liquid agent capable of solubilising said NSAID.