mhurhangee/ep-ind-claims huggingface dataset:
A vehicle brake control device comprising: a front wheel speed acquisition section configured to acquire a wheel speed of a front wheel that is a driven wheel; a rear wheel speed acquisition section configured to acquire a wheel speed of a rear wheel that is a drive wheel; a front wheel acceleration calculation section configured to calculate a front wheel acceleration based on the front wheel speed; a rear wheel acceleration calculation section configured to calculate a rear wheel acceleration based on the rear wheel speed; a front wheel anti-lock brake control section capable of executing an anti-lock brake control for the front wheel; a vehicle acceleration acquisition section configured to acquire a vehicle acceleration; and a bad road determination section configured to determine whether or not a running road surface is a bad road based on the front wheel acceleration or the rear wheel acceleration, characterized in that the bad road determination section is configured to execute a bad road determination by selectively using one of the front wheel acceleration and the rear wheel acceleration at least based on information on whether or not the anti-lock brake control for the front wheel is executed and the vehicle acceleration. a front wheel speed acquisition section configured to acquire a wheel speed of a front wheel that is a driven wheel; a rear wheel speed acquisition section configured to acquire a wheel speed of a rear wheel that is a drive wheel; a front wheel acceleration calculation section configured to calculate a front wheel acceleration based on the front wheel speed; a rear wheel acceleration calculation section configured to calculate a rear wheel acceleration based on the rear wheel speed; a front wheel anti-lock brake control section capable of executing an anti-lock brake control for the front wheel; a vehicle acceleration acquisition section configured to acquire a vehicle acceleration; and a bad road determination section configured to determine whether or not a running road surface is a bad road based on the front wheel acceleration or the rear wheel acceleration, characterized in that the bad road determination section is configured to execute a bad road determination by selectively using one of the front wheel acceleration and the rear wheel acceleration at least based on information on whether or not the anti-lock brake control for the front wheel is executed and the vehicle acceleration.
A method for preparing an integrated circuit device, the method comprising: providing a heat sink array having a top-side surface and an under-side surface, the heat sink array having a plurality of heat sink portions with at least two mounting tabs, the plurality of heat sink portions held fixedly together in the heat sink array by the at least two mounting tabs coupled by connecting bars to one another, each heat sink portion having a die placement area on the top-side surface; wherein the plurality of heat sink portions is of a first thickness and the mounting tabs and the connecting bars are of a second thickness, the first thickness being about twice that of the second thickness; die bonding a plurality of active device die onto the die placement areas in the plurality of heat sink portions, thereby forming a plurality of device die/heat sink assemblies; and sawing through the connecting bars so as to singulate the plurality of device die/heat sink assemblies into individual heat sink device assemblies. providing a heat sink array having a top-side surface and an under-side surface, the heat sink array having a plurality of heat sink portions with at least two mounting tabs, the plurality of heat sink portions held fixedly together in the heat sink array by the at least two mounting tabs coupled by connecting bars to one another, each heat sink portion having a die placement area on the top-side surface; wherein the plurality of heat sink portions is of a first thickness and the mounting tabs and the connecting bars are of a second thickness, the first thickness being about twice that of the second thickness; die bonding a plurality of active device die onto the die placement areas in the plurality of heat sink portions, thereby forming a plurality of device die/heat sink assemblies; and sawing through the connecting bars so as to singulate the plurality of device die/heat sink assemblies into individual heat sink device assemblies.
An electric linear motion actuator comprising: an electric motor capable of generating a torque corresponding to a driving electric current applied to the electric motor; a motion conversion mechanism configured to convert the torque generated by the electric motor to a linear driving force of a linear motion member such that a pressing force is applied to a target member from the linear motion member; a load sensor configured to detect a magnitude of the pressing force applied to the target member; and a motor control device configured to control the driving electric current applied to the electric motor on a basis of the magnitude of the pressing force detected by the load sensor, wherein the motion conversion mechanism comprises a mechanism showing a hysteresis property by which a magnitude of the torque of the electric motor when the pressing force is of any arbitrary magnitude while the torque is increasing (L 1) is not identical to, but is larger than, a magnitude of the torque when the pressing force is of said arbitrary magnitude while the torque is decreasing (L 3), characterized in that the motor control device is configured to control the electric current applied to the electric motor when the pressing force applied to the target member is to be maintained, such that the torque of the electric motor increases until the pressing force, as detected by the load sensor, reaches a predetermined value larger than a target value, and then the torque of the electric motor decreases until the pressing force, as detected by the load sensor, reaches the target value. an electric motor capable of generating a torque corresponding to a driving electric current applied to the electric motor; a motion conversion mechanism configured to convert the torque generated by the electric motor to a linear driving force of a linear motion member such that a pressing force is applied to a target member from the linear motion member; a load sensor configured to detect a magnitude of the pressing force applied to the target member; and a motor control device configured to control the driving electric current applied to the electric motor on a basis of the magnitude of the pressing force detected by the load sensor, wherein the motion conversion mechanism comprises a mechanism showing a hysteresis property by which a magnitude of the torque of the electric motor when the pressing force is of any arbitrary magnitude while the torque is increasing (L 1) is not identical to, but is larger than, a magnitude of the torque when the pressing force is of said arbitrary magnitude while the torque is decreasing (L 3), characterized in that the motor control device is configured to control the electric current applied to the electric motor when the pressing force applied to the target member is to be maintained, such that the torque of the electric motor increases until the pressing force, as detected by the load sensor, reaches a predetermined value larger than a target value, and then the torque of the electric motor decreases until the pressing force, as detected by the load sensor, reaches the target value.
A pattern forming method comprising: preparing a pattern paper comprising a fiber material whereby a pattern to be formed on a pattern forming target is formed by the pattern paper, wherein the pattern paper comprises: a pattern forming layer comprising the fiber material comprising carbon fiber, polyketone fiber, aramid, silica, polyester, polyurethane, or nylon, and having a surface where an original form of the pattern is formed; and a reinforced fiber layer provided on a rear surface of the pattern forming layer and comprising rubber, silicon, or metal fiber; impregnating the pattern paper with a releasing agent penetrating into the fiber material, in which the pattern forming layer and the reinforced layer are bonded; and forming the pattern on the pattern forming target by arranging the pattern paper on a lower mold, or on a lower mold and an upper mold, of a mold (12, 14) comprising the upper mold and the lower mold, and adhering the pattern paper to the pattern forming target by combining the upper mold and the lower mold. a pattern forming layer comprising the fiber material comprising carbon fiber, polyketone fiber, aramid, silica, polyester, polyurethane, or nylon, and having a surface where an original form of the pattern is formed; and a reinforced fiber layer provided on a rear surface of the pattern forming layer and comprising rubber, silicon, or metal fiber; impregnating the pattern paper with a releasing agent penetrating into the fiber material, in which the pattern forming layer and the reinforced layer are bonded; and forming the pattern on the pattern forming target by arranging the pattern paper on a lower mold, or on a lower mold and an upper mold, of a mold (12, 14) comprising the upper mold and the lower mold, and adhering the pattern paper to the pattern forming target by combining the upper mold and the lower mold.
A method of providing camera settings, said method comprising: retrieving, based on current metadata comprising current position data of a current camera and from a storage, metadata comprising position data and information representative of camera settings for photographs and/or videos available on at least one image and/or video hosting service, characterized in that said current metadata comprises an identifier of said current camera and said metadata comprises an identifier of a camera used when taking a photograph or recoding a video of said photographs and/or videos available on said at least one image and/or video hosting service, said method further comprising: providing adapted camera settings obtained by adapting, based on said identifier of said current camera and said identifier of said camera, camera settings defined by metadata retrieved from said storage and used when taking a photograph or recording a video selected among said photographs and/or videos available on said at least one image and/or video hosting service; and providing, for transmission to said current camera, current information representative of said adapted camera settings. providing adapted camera settings obtained by adapting, based on said identifier of said current camera and said identifier of said camera, camera settings defined by metadata retrieved from said storage and used when taking a photograph or recording a video selected among said photographs and/or videos available on said at least one image and/or video hosting service; and providing, for transmission to said current camera, current information representative of said adapted camera settings.
A method for fabricating a semiconductor structure, the method comprising: etching a first silicon germanium layer onto a silicon layer located on a second silicon germanium layer on a substrate to form shallow trench isolation cavities (302, 304) extending through the first silicon germanium layer and the silicon layer into the second silicon germanium layer; depositing a dielectric in the shallow trench isolation cavities (302, 304) to form isolation structures (500, 502, 2908); etching the first silicon germanium layer on the silicon layer located on the second silicon germanium layer in an area located between two of the isolation structures (500, 502, 2908) to form a cavity (1100, 1102, 1104, 2918); depositing a liner on the silicon germanium layer in the cavity; after depositing the liner, implanting dopants into the cavity (1100, 1102, 1104, 2918) to form an n-well, wherein the dopants are implanted at an energy level from 5 keV to 20 keV to achieve a lateral straggle of the dopants less than 15 nm; removing the liner; after implanting the dopants and removing the liner, depositing a metal such that the metal in the cavity (1100, 1102, 1104, 2918) contacts the n-well, such that the metal forms an ohmic contact to the n-well, wherein the metal fills the cavity; removing the metal from the area outside of the cavity (1100, 1102, 1104, 2918) wherein the metal remaining in the cavity (1100, 1102, 1104, 2918) forms the contact for the doped region. etching a first silicon germanium layer onto a silicon layer located on a second silicon germanium layer on a substrate to form shallow trench isolation cavities (302, 304) extending through the first silicon germanium layer and the silicon layer into the second silicon germanium layer; depositing a dielectric in the shallow trench isolation cavities (302, 304) to form isolation structures (500, 502, 2908); etching the first silicon germanium layer on the silicon layer located on the second silicon germanium layer in an area located between two of the isolation structures (500, 502, 2908) to form a cavity (1100, 1102, 1104, 2918); depositing a liner on the silicon germanium layer in the cavity; after depositing the liner, implanting dopants into the cavity (1100, 1102, 1104, 2918) to form an n-well, wherein the dopants are implanted at an energy level from 5 keV to 20 keV to achieve a lateral straggle of the dopants less than 15 nm; removing the liner; after implanting the dopants and removing the liner, depositing a metal such that the metal in the cavity (1100, 1102, 1104, 2918) contacts the n-well, such that the metal forms an ohmic contact to the n-well, wherein the metal fills the cavity; removing the metal from the area outside of the cavity (1100, 1102, 1104, 2918) wherein the metal remaining in the cavity (1100, 1102, 1104, 2918) forms the contact for the doped region.
An electronic device including: a first housing including a first space formed through a first lateral surface, a second lateral surface extending in a direction vertical to the first lateral surface, and a third lateral surface extending from the second lateral surface in parallel to the first lateral surface; a second housing slidably combined with the first housing along a first direction and including a second space; a bendable member connected to the first housing, and being at least partly accommodated in the second space in a slide-in state and forming at least partly the same plane as the first housing in a slide-out state; a flexible display including a first part disposed to be viewed from outside in the slide-in state, and a second part extending from the first part and being accommodated in the second space so as not to be at least partly viewed from the outside through the bendable member; and a slide hinge module disposed, to be movably combined with the first housing and the second housing, in a space between the first housing and the second housing and configured to press the first housing against the second housing, wherein the first lateral surface and the third lateral surface are accommodated in the second space so as not to be viewed from the outside in the slide-in state. a first housing including a first space formed through a first lateral surface, a second lateral surface extending in a direction vertical to the first lateral surface, and a third lateral surface extending from the second lateral surface in parallel to the first lateral surface; a second housing slidably combined with the first housing along a first direction and including a second space; a bendable member connected to the first housing, and being at least partly accommodated in the second space in a slide-in state and forming at least partly the same plane as the first housing in a slide-out state; a flexible display including a first part disposed to be viewed from outside in the slide-in state, and a second part extending from the first part and being accommodated in the second space so as not to be at least partly viewed from the outside through the bendable member; and a slide hinge module disposed, to be movably combined with the first housing and the second housing, in a space between the first housing and the second housing and configured to press the first housing against the second housing, wherein the first lateral surface and the third lateral surface are accommodated in the second space so as not to be viewed from the outside in the slide-in state.
Electric compressor comprising a compression mechanism, an electric motor driving the compression mechanism, said electric motor having an axis of rotation, an inverter powering said electric motor, the inverter being mounted in an inverter housing, the compression mechanism being mounted in a compression housing, the electric motor being mounted in a housing extending longitudinally along the axis of rotation and having a first end linked to the inverter housing by a plurality of fastening devices extending inside the motor housing, the motor housing having a second end opposite the first end relative to the electric motor, linked to the compression housing by a plurality of securing devices which are different from the fastening devices, characterized in that the second end of the motor housing takes the form of a transversal planar base, said base comprising a plurality of longitudinal cavities for positioning the fastening devices.
A system for transporting a carrier vehicle using linear motors, the system comprising: a linear motor housing shaped to hold one or more linear motors, the linear motor housing comprising: a rectangular top plate, a left side plate connected adjacent to a first longitudinal edge of the rectangular top plate, a right side plate connected adjacent to a second longitudinal edge of the rectangular top plate, and a plurality of coupling components operable to couple the linear motor housing to one or more adjacent linear motor housings in a manner that facilitates continuous propulsion of the carrier vehicle across the rectangular top plate of the linear motor housing and rectangular top plates corresponding to the one or more adjacent linear motor housings, characterized in that, the linear motor housing is coupled to an adjacent linear motor housing using a click-based mechanism where individual housings click together, or comprise apertures which are designed aligned and joined via a pin or other fastening device, and electromagnetic shielding material applied to the rectangular top plate, the left side plate, and the right side plate. a rectangular top plate, a left side plate connected adjacent to a first longitudinal edge of the rectangular top plate, a right side plate connected adjacent to a second longitudinal edge of the rectangular top plate, and a plurality of coupling components operable to couple the linear motor housing to one or more adjacent linear motor housings in a manner that facilitates continuous propulsion of the carrier vehicle across the rectangular top plate of the linear motor housing and rectangular top plates corresponding to the one or more adjacent linear motor housings, characterized in that, the linear motor housing is coupled to an adjacent linear motor housing using a click-based mechanism where individual housings click together, or comprise apertures which are designed aligned and joined via a pin or other fastening device, and electromagnetic shielding material applied to the rectangular top plate, the left side plate, and the right side plate.
A computer-implemented process for conducting a multi-party real-time audio communication session between peer nodes in a peer-to-peer computer network, each of the peer nodes having an audio stream, comprising: a packet splitting step for splitting the audio stream from each of the peer nodes into audio packets, characterized by an audio mixing step for combining audio packets from a certain time from each of the peer nodes to generate a mixed audio packet at that time; and a rotation step for assigning audio mixing of mixed audio packets and redelivery of the mixed audio packets to each of the peer nodes on a rotating basis, such that at least some of the peer nodes have a turn performing audio mixing and redelivery. a packet splitting step for splitting the audio stream from each of the peer nodes into audio packets, characterized by an audio mixing step for combining audio packets from a certain time from each of the peer nodes to generate a mixed audio packet at that time; and a rotation step for assigning audio mixing of mixed audio packets and redelivery of the mixed audio packets to each of the peer nodes on a rotating basis, such that at least some of the peer nodes have a turn performing audio mixing and redelivery.
A metal fiber manufacturing system comprising: a casting device configured to cast molten metal as metal fiber by ejecting the molten metal through a nozzle onto a cooling wheel rotating at a high speed; a collection and separation device configured to collect the metal fiber and separate defective and normal products of the metal fiber from each other; and a cutting device configured to cut metal fiber, characterized in that the cutting device comprises: a perforated drum having a cylindrical shape and comprising a plurality of penetration holes formed in a round sidewall to cut the metal fiber using the penetration holes; a driving unit connected to the perforated drum to rotate the perforated drum; and a cover enclosing at least a portion of the perforated drum and collecting the metal fiber cut and discharged via the penetration holes, wherein the perforated drum further comprises an inlet in a side thereof, an end of a tube being connected to the inlet, the other end of the tube being connected to an air blowing device, and the metal fiber is introduced into the perforated drum using air. a casting device configured to cast molten metal as metal fiber by ejecting the molten metal through a nozzle onto a cooling wheel rotating at a high speed; a collection and separation device configured to collect the metal fiber and separate defective and normal products of the metal fiber from each other; and a cutting device configured to cut metal fiber, characterized in that the cutting device comprises: a perforated drum having a cylindrical shape and comprising a plurality of penetration holes formed in a round sidewall to cut the metal fiber using the penetration holes; a driving unit connected to the perforated drum to rotate the perforated drum; and a cover enclosing at least a portion of the perforated drum and collecting the metal fiber cut and discharged via the penetration holes, wherein the perforated drum further comprises an inlet in a side thereof, an end of a tube being connected to the inlet, the other end of the tube being connected to an air blowing device, and the metal fiber is introduced into the perforated drum using air. a perforated drum having a cylindrical shape and comprising a plurality of penetration holes formed in a round sidewall to cut the metal fiber using the penetration holes; a driving unit connected to the perforated drum to rotate the perforated drum; and a cover enclosing at least a portion of the perforated drum and collecting the metal fiber cut and discharged via the penetration holes, wherein the perforated drum further comprises an inlet in a side thereof, an end of a tube being connected to the inlet, the other end of the tube being connected to an air blowing device, and the metal fiber is introduced into the perforated drum using air.