mhurhangee/patent-ind-claim-en huggingface dataset:
A pedestrian protection device for a motor vehicle with a bumper cross beam , the pedestrian protection device having a deformation element which is arranged on the bumper cross beam and which has a first element and a second element , which are displaceable relative to one another, in particular in the direction of the bumper cross beam , in the event of a collision of the motor vehicle, and having a mechanical locking mechanism which has a displaceable locking element which is preloadable or preloaded with a spring device and which is arranged on the first element or the second element and can be positively engaged with a recess or step on the other of the first element and the second element , wherein at a high displacement speed which is greater than or equal to a predetermined second displacement speed, the locking mechanism prevents displacement of the first element relative to the second element through the self-locking of the locking element , at an average displacement speed which is less than the predetermined second displacement speed and greater than a predetermined first displacement speed, the locking mechanism permits displacement of the first element and the second element relative to one another, and, at a low displacement speed which is less than or equal to the predetermined first displacement speed, the locking mechanism prevents displacement of the first element and the second element relative to one another at least partially by the positive locking of the locking element with the recess or step.
A plant control device comprising: a register configured to register a simulated dangerous condition prepared in advance which is a simulated representation of an operation condition under which a plant is dangerous, the simulated dangerous condition being represented using indexes of measured values of one or more devices (P0) provided in the plant ; a first acquirer configured to acquire an operation condition of the plant ; a learner configured to learn the operation condition acquired and the simulated dangerous condition registered and produce an operation model of the plant ; a determiner configured to determine an operation parameter of the plant on the basis of the operation condition acquired and the operation model produced; and an instructor configured to instruct an operation of the plant on the basis of the operation parameter determined, wherein the learner is configured to learn the operation condition acquired and the simulated dangerous condition registered as a loss function indicating nonconformity with the operation condition, associate the operation condition with the loss function, and produce the operation model to increase the loss function in the simulated dangerous condition learned, and the determiner is configured to calculate a loss function of the operation condition acquired and determine the operation parameter to reduce the loss function calculated on the basis of the operation model produced. a register configured to register a simulated dangerous condition prepared in advance which is a simulated representation of an operation condition under which a plant is dangerous, the simulated dangerous condition being represented using indexes of measured values of one or more devices (P0) provided in the plant ; a first acquirer configured to acquire an operation condition of the plant ; a learner configured to learn the operation condition acquired and the simulated dangerous condition registered and produce an operation model of the plant ; a determiner configured to determine an operation parameter of the plant on the basis of the operation condition acquired and the operation model produced; and an instructor configured to instruct an operation of the plant on the basis of the operation parameter determined, wherein the learner is configured to learn the operation condition acquired and the simulated dangerous condition registered as a loss function indicating nonconformity with the operation condition, associate the operation condition with the loss function, and produce the operation model to increase the loss function in the simulated dangerous condition learned, and the determiner is configured to calculate a loss function of the operation condition acquired and determine the operation parameter to reduce the loss function calculated on the basis of the operation model produced.
A system to separate a whole material including multiple components, comprising: a container having an external wall defining a container volume within the external wall and extending along a long axis between a first end and a second end ; a separation buoy positioned within the container volume between the first end and the second end; a first fill port near the first end of the container; a valve assembly formed within the first fill port; and a second withdrawal port near the second end of the container; wherein the whole material is operable to enter the container through the first fill port and at least a selected component of the whole material is operable to be withdrawn from the container through the second withdrawal port, and wherein the whole material is whole blood, bone marrow aspirate, or a combination thereof.
Processing system for processing spectacle lenses , with several processing stations , in particular a milling station , a turning station , a polishing station , a cleaning station and/or a signing station , with a transport system for transporting the spectacle lenses or transport containers for the spectacle lenses within the processing system , and with a common base frame and/or a common casing for the processing stations , characterized in that the processing system has at least one handling apparatus (6-8) for the spectacle lenses and/or for tools for processing the spectacle lenses , which can be moved parallel to the transport system and is assigned to a plurality of processing stations . with several processing stations , in particular a milling station , a turning station , a polishing station , a cleaning station and/or a signing station , with a transport system for transporting the spectacle lenses or transport containers for the spectacle lenses within the processing system , and with a common base frame and/or a common casing for the processing stations , characterized in that the processing system has at least one handling apparatus (6-8) for the spectacle lenses and/or for tools for processing the spectacle lenses , which can be moved parallel to the transport system and is assigned to a plurality of processing stations .
A PCR apparatus comprising: a PCR heating block having two or more groups of heaters, each group of heaters comprising a first heater and a second heater and each group being repeatedly spaced apart from each other on top of a substrate; a plate-shaped PCR chip having two or more reaction chambers repeatedly formed thereon in such a manner as to come into contact with the two or more groups of heaters arranged on the PCR heating block upon the thermal contact with the PCR heating block ; and repeated sliding means formed to mount the PCR chip thereon and adapted to repeatedly slide in forward and backward directions in such a manner as to maintain the contact between the PCR chip and the PCR heating block , so that upon the repeated sliding, thermal contacts between the reaction chambers formed on the PCR chip and the groups of heaters arranged on the PCR heating block are repeatedly performed, the repeated sliding means being formed to cause a sequential thermal contact between each of the two or more reaction chambers and the first heater and the second heater repeatedly arranged from one end of the PCR thermal block to the other end of the PCR thermal block during the sliding in a direction, wherein the two or more reaction chambers have the shapes of inlet/outlet integrated type wells or the shapes of inlet/outlet separate type channels; and wherein the reaction chambers are arranged correspondingly to the heaters of the PCR heating block . a PCR heating block having two or more groups of heaters, each group of heaters comprising a first heater and a second heater and each group being repeatedly spaced apart from each other on top of a substrate; a plate-shaped PCR chip having two or more reaction chambers repeatedly formed thereon in such a manner as to come into contact with the two or more groups of heaters arranged on the PCR heating block upon the thermal contact with the PCR heating block ; and repeated sliding means formed to mount the PCR chip thereon and adapted to repeatedly slide in forward and backward directions in such a manner as to maintain the contact between the PCR chip and the PCR heating block , so that upon the repeated sliding, thermal contacts between the reaction chambers formed on the PCR chip and the groups of heaters arranged on the PCR heating block are repeatedly performed, the repeated sliding means being formed to cause a sequential thermal contact between each of the two or more reaction chambers and the first heater and the second heater repeatedly arranged from one end of the PCR thermal block to the other end of the PCR thermal block during the sliding in a direction, wherein the two or more reaction chambers have the shapes of inlet/outlet integrated type wells or the shapes of inlet/outlet separate type channels; and wherein the reaction chambers are arranged correspondingly to the heaters of the PCR heating block .
A passive joint device for supporting a rotation-side member rotatably about a horizontal axis in a vertical direction with respect to a fixed-side member , comprising: a cylindrical cam member having a cylindrical surface centered on the horizontal axis and fixed to the fixed-side member, the cam member having a pair of cam surfaces symmetrically arranged on the cylindrical surface about the horizontal axis and formed obliquely along the horizontal axis; a pedestal slidably disposed along the horizontal axis within the horizontal axis fixed to the rotation-side member, the pedestal having a pair of cam followers that contact with each of the pair of cam surfaces; a spring disposed inside the horizontal axis fixed to the rotation-side member, the spring biasing the pedestal toward the fixed-side member along the horizontal axis, wherein the spring force causes the pair of cam followers to come into contact with the pair of cam surfaces, push the pair of cam surfaces, and provide upward rotational force to the rotation-side member to reduce the downward rotational force of the rotation-side member by the weight applied to the rotation-side member. a cylindrical cam member having a cylindrical surface centered on the horizontal axis and fixed to the fixed-side member, the cam member having a pair of cam surfaces symmetrically arranged on the cylindrical surface about the horizontal axis and formed obliquely along the horizontal axis; a pedestal slidably disposed along the horizontal axis within the horizontal axis fixed to the rotation-side member, the pedestal having a pair of cam followers that contact with each of the pair of cam surfaces; a spring disposed inside the horizontal axis fixed to the rotation-side member, the spring biasing the pedestal toward the fixed-side member along the horizontal axis, wherein the spring force causes the pair of cam followers to come into contact with the pair of cam surfaces, push the pair of cam surfaces, and provide upward rotational force to the rotation-side member to reduce the downward rotational force of the rotation-side member by the weight applied to the rotation-side member.
A gripper assembly for inserting the weft yarn in shuttle-less looms, comprising a bringer gripper and a taker gripper, said grippers being suitable to produce weft and warp woven fabrics by making a first step of the weft grip, a second step of transport to the center of the fabric, a third step of switching and a fourth step of completing the transport and releasing the yarn in the fabric, wherein said taker gripper, which exchanges the yarn at the center of the fabric between said taker gripper and said bringer gripper and complete the insertion, comprises a main body , shaped on one side to be fixed to a tape or rod, a central part with a drive lever for opening or closing a zone of gripping of the yarn , a longitudinally sliding rod , elastically inflected within the main body , and a slider , slidable into a hook-shaped portion , which retracts away from a surface of said hook-shaped portion and, characterized in that said slider is pushed against a guide profile of the hook-shaped portion , and in that said slider drags with it an elastic blade , which leans with a tooth against said slider and follows the movements of said slider , thus simultaneously opening said slider and said elastic blade in order to release the yarn from said taker gripper.
A seismic sensor station comprising a housing comprising: - a fiber optical cable comprising one or more optical fibers ; - a base and a removable lid , which when assembled together form a shell whereby the base and the removable lid both have a shell side and an exterior side; - a sensor unit mounted exclusively in the base ; and - a sensor spike attached to the base on the exterior side of the base, and protruding outward from the shell; and - a fiber management tray , wherein the housing is provided with two cable docking ports , each allowing passage of the fiber optical cable from outside to inside the shell, and wherein one or more optical fibers entering the shell via the two cable docking ports are looped on the fiber management tray in an excess fiber storage space, characterized in that the two cable docking ports are exclusively provided in the removable lid whereby the fiber management tray is suspended from the removable lid on the shell side of the removable lid and wherein the excess fiber storage space is defined between the fiber management tray and the removable lid . - a fiber optical cable comprising one or more optical fibers ; - a base and a removable lid , which when assembled together form a shell whereby the base and the removable lid both have a shell side and an exterior side; - a sensor unit mounted exclusively in the base ; and - a sensor spike attached to the base on the exterior side of the base, and protruding outward from the shell; and - a fiber management tray ,
A wellbore intervention tool for use in penetrating an obstruction in a wellbore, comprising: a cutting tool having at least one rotating cutter member , for penetrating the obstruction, coupled to a lower end thereof; a displacement mechanism coupled to an upper end of the cutting tool and operable to set and adjust a cutting position of the cutting tool relative to a tool axis of the wellbore intervention tool; and a sweeper coupled to the displacement mechanism and operable to deflect the displacement mechanism about the tool axis , wherein the cutting tool is deflected with the displacement mechanism; wherein the obstruction is in front of the cutting tool ; and characterised in that the at least one rotating cutter member has a rotation axis that is substantially perpendicular to the tool axis at all times. a cutting tool having at least one rotating cutter member , for penetrating the obstruction, coupled to a lower end thereof; a displacement mechanism coupled to an upper end of the cutting tool and operable to set and adjust a cutting position of the cutting tool relative to a tool axis of the wellbore intervention tool; and a sweeper coupled to the displacement mechanism and operable to deflect the displacement mechanism about the tool axis , wherein the cutting tool is deflected with the displacement mechanism; wherein the obstruction is in front of the cutting tool ; and characterised in that the at least one rotating cutter member has a rotation axis that is substantially perpendicular to the tool axis at all times.
An electrosurgical device, comprising: an electrosurgical implement supported by a shaft for rotation about a longitudinal axis; a stator positioned about the shaft and fixed against rotation, wherein the stator includes a pair of rings that are electrically isolated from each other and configured for connection to an electrosurgical power source; and a rotor having first and second sets of pins that are electrically isolated from each other and electrically coupled to the electrosurgical implement, wherein the rotor is positioned about and rotatable with the shaft such that the first set of pins are positioned in contact with one of the pair of rings and the second set of pins are positioned in contact with the other of the pair of rings. an electrosurgical implement supported by a shaft for rotation about a longitudinal axis; a stator positioned about the shaft and fixed against rotation, wherein the stator includes a pair of rings that are electrically isolated from each other and configured for connection to an electrosurgical power source; and a rotor having first and second sets of pins that are electrically isolated from each other and electrically coupled to the electrosurgical implement, wherein the rotor is positioned about and rotatable with the shaft such that the first set of pins are positioned in contact with one of the pair of rings and the second set of pins are positioned in contact with the other of the pair of rings.
A gas turbine engine heat shield comprising: a first circumferential heat shield segment defined about an axis (A); and a second circumferential heat shield segment defined about said axis (A); characterised in that said heat shield further comprises: a double circumferential lap joint between said first circumferential heat shield segment and said second circumferential heat shield segment , wherein said double circumferential lap joint is defined by an outer cover and an alignment tab mounted to said first circumferential heat shield segment ; and said outer cover and said alignment tab extend circumferentially beyond an edge of said first circumferential heat shield segment , wherein said alignment tab includes a curved end which curves away from said outer cover to facilitate receipt of the second circumferential heat shield segment . a first circumferential heat shield segment defined about an axis (A); and a second circumferential heat shield segment defined about said axis (A); characterised in that said heat shield further comprises: a double circumferential lap joint between said first circumferential heat shield segment and said second circumferential heat shield segment , wherein said double circumferential lap joint is defined by an outer cover and an alignment tab mounted to said first circumferential heat shield segment ; and said outer cover and said alignment tab extend circumferentially beyond an edge of said first circumferential heat shield segment , wherein said alignment tab includes a curved end which curves away from said outer cover to facilitate receipt of the second circumferential heat shield segment . a double circumferential lap joint between said first circumferential heat shield segment and said second circumferential heat shield segment , wherein said double circumferential lap joint is defined by an outer cover and an alignment tab mounted to said first circumferential heat shield segment ; and said outer cover and said alignment tab extend circumferentially beyond an edge of said first circumferential heat shield segment , wherein said alignment tab includes a curved end which curves away from said outer cover to facilitate receipt of the second circumferential heat shield segment .
Clamping device for receiving a blank of a turbine blade in a processing machine, in particular in a milling machine, comprising two clamping jaws that are displaceable relative to one another, wherein the clamping device comprises at least one shaped portion projecting in the direction of the blank to be received for engagement in a recess of the blank of the turbine blade which is eccentrically arranged, characterized in that the at least one eccentric shaped portion is arranged on a cross member that is arranged transversely to a rotational axis between the clamping jaws .
Coil support for preformed flat coils of a stator of an electric rotary motor, the coil support comprising an annular supporting structure , a plurality of columns extending upwardly from said supporting structure in a direction parallel to the rotation axis of the electric rotary motor and spaced apart from each other to form a corresponding plurality of coil receiving portions for holding the preformed flat coils in place, wherein each of said coil receiving portions is configured to support a lower part of a preformed flat coil , two radially opposite sides of said lower part being within respectively a first and a second plane which are perpendicular to an axis extending radially from the rotation axis of the electric rotary motor, characterized in that said plurality of columns comprises a first and a second group of columns , the minimal width ( d1 ) of the columns of the first group being greater than the minimal width ( d2 ) of the columns of the second group, and wherein one or more adjacent columns of the second group are arranged in-between two columns of the first group.
Apparatus for use in servicing a heavy vehicle brake assembly, comprising: a calliper support assembly configured to engage and support an in-situ calliper, the calliper support assembly being movable with the calliper engaged to remove and subsequently reengage the calliper with a hub and rotor assembly of the vehicle; a hub engagement assembly configured to engage an accessible portion of the in-situ hub and rotor assembly; a trolley carrying the hub engagement assembly and configured to support and move the engaged hub and rotor assembly between an in-situ position and a removed position to facilitate removal and installation of the hub and rotor assembly; and means within the trolley for raising the hub engagement assembly to facilitate servicing, characterised by a hub removal mechanism (125. 129) configured to forcibly remove (he hub and rotor assembly from an axle of the vehicle in cooperation with the hub engagement assembly, wherein the hub removal mechanism includes an actuator mounted on the trolley and adapted to in use apply force between the hub and rotor assembly and the vehicle axle to effect removal of the hub and rotor assembly from the vehicle. a calliper support assembly configured to engage and support an in-situ calliper, the calliper support assembly being movable with the calliper engaged to remove and subsequently reengage the calliper with a hub and rotor assembly of the vehicle; a hub engagement assembly configured to engage an accessible portion of the in-situ hub and rotor assembly; a trolley carrying the hub engagement assembly and configured to support and move the engaged hub and rotor assembly between an in-situ position and a removed position to facilitate removal and installation of the hub and rotor assembly; and means within the trolley for raising the hub engagement assembly to facilitate servicing, characterised by a hub removal mechanism (125. 129) configured to forcibly remove (he hub and rotor assembly from an axle of the vehicle in cooperation with the hub engagement assembly, wherein the hub removal mechanism includes an actuator mounted on the trolley and adapted to in use apply force between the hub and rotor assembly and the vehicle axle to effect removal of the hub and rotor assembly from the vehicle.