mhurhangee/patent-ind-claim-en huggingface dataset:
A surgical instrument comprising: an end effector comprising: an ultrasonic blade configured to ultrasonically oscillate against tissue; and a clamp arm configured to pivot relative to the ultrasonic blade ; an electrode configured to receive electrosurgical energy from a generator and apply the received electrosurgical energy to the end effector to weld tissue based on the generator generating a drive signal; an ultrasonic transducer acoustically coupled to the ultrasonic blade, the ultrasonic transducer configured to ultrasonically oscillate the ultrasonic blade in response to the drive signal; a sensor coupled to a control circuit, wherein the sensor is configured to output a signal indicative of a surgical parameter to the control circuit; and the control circuit coupled to the end effector, wherein the control circuit is configured to: receive the sensor signal; determine a weld time of a surgical operation performed by the surgical instrument based on the sensor signal; and vary a clamp arm pressure applied by the clamp arm to maintain one or more of a predefined heat flux or power applied to tissue loaded in the end effector. an end effector comprising: an ultrasonic blade configured to ultrasonically oscillate against tissue; and a clamp arm configured to pivot relative to the ultrasonic blade ; an ultrasonic blade configured to ultrasonically oscillate against tissue; and a clamp arm configured to pivot relative to the ultrasonic blade ; an electrode configured to receive electrosurgical energy from a generator and apply the received electrosurgical energy to the end effector to weld tissue based on the generator generating a drive signal; an ultrasonic transducer acoustically coupled to the ultrasonic blade, the ultrasonic transducer configured to ultrasonically oscillate the ultrasonic blade in response to the drive signal; a sensor coupled to a control circuit, wherein the sensor is configured to output a signal indicative of a surgical parameter to the control circuit; and the control circuit coupled to the end effector, wherein the control circuit is configured to: receive the sensor signal; determine a weld time of a surgical operation performed by the surgical instrument based on the sensor signal; and vary a clamp arm pressure applied by the clamp arm to maintain one or more of a predefined heat flux or power applied to tissue loaded in the end effector. receive the sensor signal; determine a weld time of a surgical operation performed by the surgical instrument based on the sensor signal; and vary a clamp arm pressure applied by the clamp arm to maintain one or more of a predefined heat flux or power applied to tissue loaded in the end effector.
A method for manufacturing a rare earth sintered magnet comprising the steps of: preparing a R 1 -T-X sintered body having a major phase of R 1 2 T 14 X composition wherein R 1 is at least one element selected from rare earth elements and essentially contains Pr and/or Nd, T is at least one element selected from the group consisting of Fe, Co, Al, Ga, and Cu and essentially contains Fe, and X is boron and/or carbon, forming an alloy powder containing R 2 , M and B wherein R 2 is at least one element selected from rare earth elements and essentially contains Dy and/or Tb, M is at least one element selected from the group consisting of Fe, Cu, Al, Co, Mn, Ni, Sn and Si, and B is boron, , disposing the alloy powder on the surface of the sintered body, and heat treating the alloy-covered sintered body in vacuum or inert gas atmosphere at a temperature not higher than the sintering temperature of the sintered body, characterized in that the alloy contains 5 to 60 at% of R 2 , 5 to 70 at% of M, and from more than 20 at% to 70 at% of B. preparing a R 1 -T-X sintered body having a major phase of R 1 2 T 14 X composition wherein R 1 is at least one element selected from rare earth elements and essentially contains Pr and/or Nd, T is at least one element selected from the group consisting of Fe, Co, Al, Ga, and Cu and essentially contains Fe, and X is boron and/or carbon, forming an alloy powder containing R 2 , M and B wherein R 2 is at least one element selected from rare earth elements and essentially contains Dy and/or Tb, M is at least one element selected from the group consisting of Fe, Cu, Al, Co, Mn, Ni, Sn and Si, and B is boron, , disposing the alloy powder on the surface of the sintered body, and heat treating the alloy-covered sintered body in vacuum or inert gas atmosphere at a temperature not higher than the sintering temperature of the sintered body,
A vertical DMOS field-effect transistor (FET), with a cell structure comprising: a substrate of a first conductivity type forming a drain region; an epitaxial layer of the first conductivity type on said substrate ; first and second base regions of the second conductivity type within said epitaxial layer , spaced apart by a distance; first and second source regions of a first conductivity type arranged in said first and second base regions , respectively, wherein said first and second base region is operable to form first and second lateral channels between said source region and said epitaxial layer ; characterized by a gate structure insulated from said epitaxial layer by an insulation layer comprising a thin gate oxide layer and a thick oxide layer and arranged above the region between the first and second base regions and wherein the gate structure comprises first and second vertical trench gate regions located in the thick oxide layer , wherein the terminal portion of each trench gate region is arranged to cover channel portions of the first and second base regions , respectively such that only the terminal portions of the trench gates of the gate structure significantly contribute to a gate capacitance. a substrate of a first conductivity type forming a drain region; an epitaxial layer of the first conductivity type on said substrate ; first and second base regions of the second conductivity type within said epitaxial layer , spaced apart by a distance; first and second source regions of a first conductivity type arranged in said first and second base regions , respectively, wherein said first and second base region is operable to form first and second lateral channels between said source region and said epitaxial layer ; characterized by a gate structure insulated from said epitaxial layer by an insulation layer comprising a thin gate oxide layer and a thick oxide layer and arranged above the region between the first and second base regions and wherein the gate structure comprises first and second vertical trench gate regions located in the thick oxide layer , wherein the terminal portion of each trench gate region is arranged to cover channel portions of the first and second base regions , respectively such that only the terminal portions of the trench gates of the gate structure significantly contribute to a gate capacitance.
A method for protecting a computer device running a Linked Data client application from malicious Resource Description Framework - RDF - content in data retrieved by the Linked Data application, by screening RDF triples in data retrieved by the Linked Data client application for malicious RDF content before the RDF triples are further processed by the Linked Data client application, wherein the screening comprises: storing RDF triples from the retrieved data in a cache ; employing a SPARQL Protocol and RDF Query Language - SPARQL - engine equipped with a list of SPARQL queries relating to at least one content-based Linked Data spam threat to analyse each of the RDF triples stored in the cache and identify those of the triples which contain RDF content deemed to be malicious, wherein analysing each of the RDF triples comprises using at least one SPARQL FILTER function comprising a first filter which labels RDF string literals as spam or ham and a second filter which labels Uniform Resource Identifiers - URIs - as spam or ham , the first and second filters comprising respective first and second binary classifiers, the first classifier having been trained to identify malicious RDF string literals and the second classifier having been trained to identify malicious URIs; removing from the cache any triples which have been identified as containing malicious RDF content; and allowing triples remaining in the cache to be further processed by the Linked Data client application. storing RDF triples from the retrieved data in a cache ; employing a SPARQL Protocol and RDF Query Language - SPARQL - engine equipped with a list of SPARQL queries relating to at least one content-based Linked Data spam threat to analyse each of the RDF triples stored in the cache and identify those of the triples which contain RDF content deemed to be malicious, wherein analysing each of the RDF triples comprises using at least one SPARQL FILTER function comprising a first filter which labels RDF string literals as spam or ham and a second filter which labels Uniform Resource Identifiers - URIs - as spam or ham , the first and second filters comprising respective first and second binary classifiers, the first classifier having been trained to identify malicious RDF string literals and the second classifier having been trained to identify malicious URIs; removing from the cache any triples which have been identified as containing malicious RDF content; and allowing triples remaining in the cache to be further processed by the Linked Data client application.
An integrated circuit structure, comprising: a circuit area; ESD buses; and pad groups connected to the ESD buses; wherein the circuit area comprises at least one first area, each of the first area (SA1, SA2) is adjacent to two ESD buses of the ESD buses and two pad groups of the pad groups; wherein one of the two pad groups of the pad groups is connected to the other of two pad groups of the pad groups via a bonding wire; wherein each of the two pad groups of the pad groups comprises a connecting pad, and the connecting pad of one of the two pad groups is connected to the connecting pad of the other of the two pad groups via the bonding wires. a circuit area; ESD buses; and pad groups connected to the ESD buses; wherein the circuit area comprises at least one first area, each of the first area (SA1, SA2) is adjacent to two ESD buses of the ESD buses and two pad groups of the pad groups; wherein one of the two pad groups of the pad groups is connected to the other of two pad groups of the pad groups via a bonding wire; wherein each of the two pad groups of the pad groups comprises a connecting pad, and the connecting pad of one of the two pad groups is connected to the connecting pad of the other of the two pad groups via the bonding wires.
A method for predicting thermal runaway of a battery based on a machine learning, comprising: S01: obtaining characteristic parameters related to thermal runaway data, wherein, the thermal runaway data are stored in a pre-established battery real database; S02: dividing a training set and a testing set, wherein, both the training set and the testing set come from the real battery database; S03: constructing a linear regression predictor for evolutionary operation; S04: training the linear regression predictor based on the training set; S05: predicting real parameters of the thermal runaway based on the testing set, which means inputting real data of the battery in the battery real database in S01 to the linear regression predictor, and comparing a predicted result of the linear regression predictor with the real data of the battery in the battery real database in S01. S01: obtaining characteristic parameters related to thermal runaway data, wherein, the thermal runaway data are stored in a pre-established battery real database; S02: dividing a training set and a testing set, wherein, both the training set and the testing set come from the real battery database; S03: constructing a linear regression predictor for evolutionary operation; S04: training the linear regression predictor based on the training set; S05: predicting real parameters of the thermal runaway based on the testing set, which means inputting real data of the battery in the battery real database in S01 to the linear regression predictor, and comparing a predicted result of the linear regression predictor with the real data of the battery in the battery real database in S01.
A swivel joint , comprising: a tail section having an interior that defines at least a portion of a passageway through the swivel joint ; a body portion having an interior adapted to receive at least a portion of the tail section therein, the interior of the body portion defining at least a portion of the passageway through the swivel joint , the body portion having a bore hole therethrough; one or more seals disposed between an interior surface of the body portion and an outer surface of the tail section , the one or more seals, the interior surface of the body portion , and the outer surface of the tail section cooperating to at least partially define a cavity ; and an electrical conductivity grease fitting mounted within the bore hole , the electrical conductivity grease fitting being adapted to have a lubricant passed therethrough and into the cavity , the electrical conductivity grease fitting having a first portion in electrical communication with the body portion and a second portion in electrical communication with the tail section to maintain electrical conductivity between the tail section and the body portion . a tail section having an interior that defines at least a portion of a passageway through the swivel joint ; a body portion having an interior adapted to receive at least a portion of the tail section therein, the interior of the body portion defining at least a portion of the passageway through the swivel joint , the body portion having a bore hole therethrough; one or more seals disposed between an interior surface of the body portion and an outer surface of the tail section , the one or more seals, the interior surface of the body portion , and the outer surface of the tail section cooperating to at least partially define a cavity ; and an electrical conductivity grease fitting mounted within the bore hole , the electrical conductivity grease fitting being adapted to have a lubricant passed therethrough and into the cavity , the electrical conductivity grease fitting having a first portion in electrical communication with the body portion and a second portion in electrical communication with the tail section to maintain electrical conductivity between the tail section and the body portion .
Packaging device for a flexible container containing a liquid, viscous or powdery material, said container having an outlet pipe for extraction of said material, said packaging device being formed by two substantially truncated baskets that are joined together, a lower basket and an upper basket , said baskets comprising a base, a lateral wall and an upper surface defining an opening, characterised in that each of said baskets is constructed using an assembly of staves each extending over said base and said lateral wall , in that said baskets are joined and secured together by the edges of their respective upper surfaces, once said flexible container has been placed in one of the baskets , in such a way as to present a general form of a barrel, and in that the lower basket has an opening or a corresponding pre-cut, allowing the passage of said outlet pipe.
A fiber-reinforced thermoplastic resin prepreg comprising: a matrix resin comprising a polyarylketone resin and a polyetherimide resin; and a carbon fiber, wherein the polyetherimide resin in the matrix resin comprises a polyetherimide resin having a structural unit represented by Formula , an amount of the polyetherimide resin in the matrix resin (100% by mass) is 3% by mass to 25% by mass, and an amount of the polyarylketone resin in the matrix resin (100% by mass) is 75% by mass or more: a matrix resin comprising a polyarylketone resin and a polyetherimide resin; and a carbon fiber, wherein the polyetherimide resin in the matrix resin comprises a polyetherimide resin having a structural unit represented by Formula , an amount of the polyetherimide resin in the matrix resin (100% by mass) is 3% by mass to 25% by mass, and an amount of the polyarylketone resin in the matrix resin (100% by mass) is 75% by mass or more:
Actuable flap arrangement , comprising a. a housing having a housing opening , b. a flap which is coupled to the housing so as to be pivotable between an open position and a closed position, for opening and closing the housing opening , c. an actuating device for actuating the flap , with i. a linear actuator and ii. a coupling element for connecting the linear actuator to the flap , d. an energy storage element for compensating for the dead weight of the flap, wherein the energy storage element is coupled at a first end to the housing so as to be pivotable about a first energy-storage-element pivot axis and is coupled at a second end to the flap so as to be pivotable about a second energy-storage-element pivot axis , characterized in that the energy storage element exerts a closing force on the flap in the closed position of the flap and a holding-open force on the flap in the open position of the flap , and in that the linear actuator is mounted on the housing, wherein the linear actuator is a spindle actuator with a linear-actuator longitudinal axis and with an outer housing , wherein at least two fastening means are provided on the housing , at which fastening means the spindle actuator is fastened to the housing . a. a housing having a housing opening , b. a flap which is coupled to the housing so as to be pivotable between an open position and a closed position, for opening and closing the housing opening , c. an actuating device for actuating the flap , with i. a linear actuator and ii. a coupling element for connecting the linear actuator to the flap , i. a linear actuator and ii. a coupling element for connecting the linear actuator to the flap , d. an energy storage element for compensating for the dead weight of the flap,
A touchscreen-based control method applied to an online game, the method performed at a terminal having a touchscreen, comprising: detecting a first touch point acting on a first icon displayed on a touchscreen, the first icon corresponding to a first operation of an online game; displaying an auxiliary control region and a candidate effect range region on the touchscreen, an area of the candidate effect range region being greater than an area of the auxiliary control region; establishing a mapping relationship between a location of the candidate effect range region and a location of the auxiliary control region; detecting, on the touchscreen, a user action of dragging the first icon to a first location in the auxiliary control region; in accordance with the mapping relationship, obtaining a first effect range in the candidate effect range region according to the first location in the auxiliary control region, and adjusting a location of the first effect range relative to the candidate effect range region by adjusting the location of the first icon relative to the auxiliary control region; and performing, on a virtual target in the obtained first effect range, the first operation corresponding to the first icon. detecting a first touch point acting on a first icon displayed on a touchscreen, the first icon corresponding to a first operation of an online game; displaying an auxiliary control region and a candidate effect range region on the touchscreen, an area of the candidate effect range region being greater than an area of the auxiliary control region; establishing a mapping relationship between a location of the candidate effect range region and a location of the auxiliary control region; detecting, on the touchscreen, a user action of dragging the first icon to a first location in the auxiliary control region; in accordance with the mapping relationship, obtaining a first effect range in the candidate effect range region according to the first location in the auxiliary control region, and adjusting a location of the first effect range relative to the candidate effect range region by adjusting the location of the first icon relative to the auxiliary control region; and performing, on a virtual target in the obtained first effect range, the first operation corresponding to the first icon.
A method of manufacturing coil components comprising the steps of: holding, with a jig having holding portions, a plurality of coil components being semi-finished products , each of which includes a base and a coil ; setting in a mold the plurality of semi-finished products held by the jig to the setting positions of the jig; and sealing with resin the base and the coil of each of the plurality of semi-finished products by filling the resin into a cavity of the mold, wherein the jig is provided with a lower jig and an upper jig , and concurrently, in the step of holding, the semi-finished product is sandwiched between the lower jig and the upper jig . holding, with a jig having holding portions, a plurality of coil components being semi-finished products , each of which includes a base and a coil ; setting in a mold the plurality of semi-finished products held by the jig to the setting positions of the jig; and sealing with resin the base and the coil of each of the plurality of semi-finished products by filling the resin into a cavity of the mold, wherein the jig is provided with a lower jig and an upper jig , and concurrently, in the step of holding, the semi-finished product is sandwiched between the lower jig and the upper jig .
Bodywork component for a motor vehicle made of a press-hardened sheet steel material (M), which bodywork component has at least one super-hardened component region , which is intended to act as a predetermined breaking point in the event of crash-induced loading (F), wherein the sheet steel material (M) in the super-hardened component region has a high strength which is at least 100 MPa greater than the highest strength outside of this super-hardened component region , characterized in that the super-hardened component region is a surface portion which extends from one outer edge of the bodywork component to at least one other outer edge of the bodywork component and in which the high strength is homogenous.
A digital phase locked loop (200; 300; 400) comprising: a time-to-digital converter configured to generate a quantized value based on a local oscillator signal of a controllable local oscillator of the digital phase locked loop and a reference signal of a reference clock; and an estimator component configured to receive the quantized value and generate an estimation of a phase value from the quantized value as a function of a set of a-priori data related to the time-to-digital converter and boundaries of the quantized value, the set of a priori data comprising a statistical distribution of input data to the time-to-digital converter that includes an expected phase with a phase error, wherein the estimated phase value is used to control said controllable local oscillator. a time-to-digital converter configured to generate a quantized value based on a local oscillator signal of a controllable local oscillator of the digital phase locked loop and a reference signal of a reference clock; and an estimator component configured to receive the quantized value and generate an estimation of a phase value from the quantized value as a function of a set of a-priori data related to the time-to-digital converter and boundaries of the quantized value, the set of a priori data comprising a statistical distribution of input data to the time-to-digital converter that includes an expected phase with a phase error, wherein the estimated phase value is used to control said controllable local oscillator.