mhurhangee/ep-ind-claims huggingface dataset:
A manipulation input device comprising: a manipulation button that is movable about a rotation center line by being pushed by a user, and has a contact portion on a side of the manipulation button opposite to a side to be pushed by the user; an actuator having a button drive member that contacts the contact portion of the manipulation button, and applies, to the manipulation button, a force in an opposite direction to a direction in which the manipulation button is pushed; and a guide that defines a direction in which the button drive member moves, wherein the button drive member is slidable along the guide, wherein the contact portion moves along an arc-like trajectory centered on the rotation center line, and the button drive member is slidable about a rotation center line positioned inside an arc including the trajectory. a manipulation button that is movable about a rotation center line by being pushed by a user, and has a contact portion on a side of the manipulation button opposite to a side to be pushed by the user; an actuator having a button drive member that contacts the contact portion of the manipulation button, and applies, to the manipulation button, a force in an opposite direction to a direction in which the manipulation button is pushed; and a guide that defines a direction in which the button drive member moves, wherein the button drive member is slidable along the guide, wherein the contact portion moves along an arc-like trajectory centered on the rotation center line, and the button drive member is slidable about a rotation center line positioned inside an arc including the trajectory.
An RF shutter, comprising: a non-conductive substrate; and a plurality of cells including conductive members coupled to the non-conductive substrate, wherein the conductive members are arranged to form a first discontinuous mesh, wherein each conductive member of a cell is separated from conductive members of adjacent cells by a gap, and wherein a cavity is defined in the non-conductive substrate at a location of each gap; wherein the RF shutter is arranged to permit propagation therethrough of a first electromagnetic waveform having a first wavelength; and wherein, when the RF shutter is subjected to a second electromagnetic waveform having a second wavelength, the RF shutter is arranged to block propagation of the second electromagnetic waveform by being further arranged so that the second electromagnetic waveform causes a material present in the cavity at each gap to be ionized to form a plasma. a non-conductive substrate; and a plurality of cells including conductive members coupled to the non-conductive substrate, wherein the conductive members are arranged to form a first discontinuous mesh, wherein each conductive member of a cell is separated from conductive members of adjacent cells by a gap, and wherein a cavity is defined in the non-conductive substrate at a location of each gap; wherein the RF shutter is arranged to permit propagation therethrough of a first electromagnetic waveform having a first wavelength; and wherein, when the RF shutter is subjected to a second electromagnetic waveform having a second wavelength, the RF shutter is arranged to block propagation of the second electromagnetic waveform by being further arranged so that the second electromagnetic waveform causes a material present in the cavity at each gap to be ionized to form a plasma.
A material conveyor system container, comprising: an elevator bucket having a back wall, opposed sidewalls (14, 16), a bottom wall curving upward into a front wall spaced from the back wall, and a wear band; the front wall being joined to the bottom wall to form an open top; the front wall and bottom wall portions being joined to the opposed sidewalls by arcuate corner parts (22, 24); the wear band extending entirely across a top portion of the front wall and integral corner parts (28, 30) to protect the top portion of the front wall and integral corner parts (28, 30) from a flow of material wearing the elevator bucket; and the wear band extending across a forward portion of a top portion of the opposed sidewalls (14, 16), and characterized in that the wear band is made of a highly abrasion resistant material and a remainder of the elevator bucket is made of a polyethylene material that is a different polymer than the polymer used for the wear band. an elevator bucket having a back wall, opposed sidewalls (14, 16), a bottom wall curving upward into a front wall spaced from the back wall, and a wear band; the front wall being joined to the bottom wall to form an open top; the front wall and bottom wall portions being joined to the opposed sidewalls by arcuate corner parts (22, 24); the wear band extending entirely across a top portion of the front wall and integral corner parts (28, 30) to protect the top portion of the front wall and integral corner parts (28, 30) from a flow of material wearing the elevator bucket; and the wear band extending across a forward portion of a top portion of the opposed sidewalls (14, 16), and characterized in that the wear band is made of a highly abrasion resistant material and a remainder of the elevator bucket is made of a polyethylene material that is a different polymer than the polymer used for the wear band.
An endovascular guide catheter comprising: a flexible guide tube having a distal end portion configured to deflect via actuation of a pull wire; and a handle coupled to the guide tube and comprising a steering assembly configured to actuate the pull wire to deflect the distal end portion of the guide tube, the steering assembly comprising: a stationary rack; a gear engaging the rack; a reel coupled to and configured to rotate with the gear, the pull wire being coupled to the reel such that rotation of the reel causes the pull wire to wind or unwind around the reel; and a slider adapted for translation relative to the rack, wherein translation of the slider translates the reel relative to the rack and rotation of the gear along the rack rotates the reel, wherein the guide catheter further comprises an actuator configured to rotate about a longitudinal axis of the guide catheter to drive the translation of the slider relative to the rack. a flexible guide tube having a distal end portion configured to deflect via actuation of a pull wire; and a handle coupled to the guide tube and comprising a steering assembly configured to actuate the pull wire to deflect the distal end portion of the guide tube, the steering assembly comprising: a stationary rack; a gear engaging the rack; a reel coupled to and configured to rotate with the gear, the pull wire being coupled to the reel such that rotation of the reel causes the pull wire to wind or unwind around the reel; and a slider adapted for translation relative to the rack, wherein translation of the slider translates the reel relative to the rack and rotation of the gear along the rack rotates the reel, wherein the guide catheter further comprises an actuator configured to rotate about a longitudinal axis of the guide catheter to drive the translation of the slider relative to the rack. a stationary rack; a gear engaging the rack; a reel coupled to and configured to rotate with the gear, the pull wire being coupled to the reel such that rotation of the reel causes the pull wire to wind or unwind around the reel; and a slider adapted for translation relative to the rack, wherein translation of the slider translates the reel relative to the rack and rotation of the gear along the rack rotates the reel, wherein the guide catheter further comprises an actuator configured to rotate about a longitudinal axis of the guide catheter to drive the translation of the slider relative to the rack.
A method for processing components made of wood or the like for fixtures in a machine comprising a base extending in a first direction, at least two cross elements mounted to the base parallelly to a second direction transversal to the first direction, at least one clamping vice mounted to each cross element for locking at least one component, and a bridge crane, which extends over the base in the second direction, and supports at least one operating head; the method comprising the steps of: locking at least one component inside at least one clamping vice parallelly to the first direction; and profiling the component parallelly to the first direction by means of the operating head; and being characterized in that it further comprises the steps of: marking the component by means of a marking device carried by the bridge crane; and detaching the glass stop from the component and coupling the glass stop to the component itself by means of a cutting and coupling assembly carried by the bridge crane; the steps of profiling and marking the component and of detaching and coupling the glass stop being sequentially carried out during a single working run of the bridge crane or the clamping vice in the first direction. locking at least one component inside at least one clamping vice parallelly to the first direction; and profiling the component parallelly to the first direction by means of the operating head; and being characterized in that it further comprises the steps of: marking the component by means of a marking device carried by the bridge crane; and detaching the glass stop from the component and coupling the glass stop to the component itself by means of a cutting and coupling assembly carried by the bridge crane; the steps of profiling and marking the component and of detaching and coupling the glass stop being sequentially carried out during a single working run of the bridge crane or the clamping vice in the first direction. marking the component by means of a marking device carried by the bridge crane; and detaching the glass stop from the component and coupling the glass stop to the component itself by means of a cutting and coupling assembly carried by the bridge crane; the steps of profiling and marking the component and of detaching and coupling the glass stop being sequentially carried out during a single working run of the bridge crane or the clamping vice in the first direction.
A base seal of a residual salt stockpile comprising two layers disposed on top of one another, wherein the upper layer is composed of a mixture of gravel with a grain range of 8 to 16 mm, sand with a grain range of 0 to 2 mm and bentonite or powdered clay with a permeability coefficient of k ≤ 10 -9 m/s, and the lower layer is composed of a mixture of sand with a grain range of 0 to 2 mm and bentonite or powdered clay with a permeability coefficient of k ≤ 5*10 -10 m/s.
A computer implemented method for evacuation support for a populated area, comprising: storing, on a first computer, a first graph representing a first physical zone in the populated area, the first graph having at least one exit node (111, 112, 113) corresponding to at least one exit from the first physical zone; storing, on a second computer, a second graph representing a second physical zone in the populated area, the second graph having at least one exit node (211, 212, 213) corresponding to at least one exit (2011, 2012, 2013) from the second physical zone; storing, on an area computer, a third graph representing how physical zones are connected in the populated area, the third graph having a plurality of exit nodes corresponding to exit nodes in the first graph, and a plurality of exit nodes corresponding to exit nodes in the second graph, the edges of the graph corresponding to connecting elements between physical zones; receiving sensor data indicating a situation in the populated area; calculating, on said area computer, an area exit path (212->112) from the third graph based on the sensor data; determining, on the first and second computers, respectively, at least one first zone exit path (112->111) from the first graph and at least one second zone exit path (219->212) from the second graph based on the sensor data and the area exit path (212->112); and generating evacuation instructions in compliance with the first, second and area exit paths (112->212, 219->212, 212->112). storing, on a first computer, a first graph representing a first physical zone in the populated area, the first graph having at least one exit node (111, 112, 113) corresponding to at least one exit from the first physical zone; storing, on a second computer, a second graph representing a second physical zone in the populated area, the second graph having at least one exit node (211, 212, 213) corresponding to at least one exit (2011, 2012, 2013) from the second physical zone; storing, on an area computer, a third graph representing how physical zones are connected in the populated area, the third graph having a plurality of exit nodes corresponding to exit nodes in the first graph, and a plurality of exit nodes corresponding to exit nodes in the second graph, the edges of the graph corresponding to connecting elements between physical zones; receiving sensor data indicating a situation in the populated area; calculating, on said area computer, an area exit path (212->112) from the third graph based on the sensor data; determining, on the first and second computers, respectively, at least one first zone exit path (112->111) from the first graph and at least one second zone exit path (219->212) from the second graph based on the sensor data and the area exit path (212->112); and generating evacuation instructions in compliance with the first, second and area exit paths (112->212, 219->212, 212->112).
A method for blow molding a container using a preformed puck (200, 300) comprising a circular plate (204, 304) and a flange (210, 310), the method, comprising: heating a central region of the circular plate of the preformed puck (200, 300) to a first temperature; heating an annular region surrounding the central region of the circular plate (204, 304) of the preformed puck (200, 300) to a second temperature, wherein the second temperature is greater than the first temperature; arranging the heated preformed puck (200, 300) at an upper end of a mold cavity of a mold, wherein an inner wall of the mold cavity defines an outer shape of the container; stretching the heated preformed puck (200, 300) by pressing a plunger into the heated preformed puck (200, 300) and into the mold cavity in a longitudinal direction of the mold cavity toward a lower end of the mold cavity; and applying pressurized air to the mold cavity so that the heated preformed puck (200, 300) stretches to conform to the shape of the inner wall of the mold cavity. heating a central region of the circular plate of the preformed puck (200, 300) to a first temperature; heating an annular region surrounding the central region of the circular plate (204, 304) of the preformed puck (200, 300) to a second temperature, wherein the second temperature is greater than the first temperature; arranging the heated preformed puck (200, 300) at an upper end of a mold cavity of a mold, wherein an inner wall of the mold cavity defines an outer shape of the container; stretching the heated preformed puck (200, 300) by pressing a plunger into the heated preformed puck (200, 300) and into the mold cavity in a longitudinal direction of the mold cavity toward a lower end of the mold cavity; and applying pressurized air to the mold cavity so that the heated preformed puck (200, 300) stretches to conform to the shape of the inner wall of the mold cavity.
A method comprising: accessing a first non-volatile memory associated with a compressor using a processor associated with at least one of a second non-volatile memory and an operating memory; storing compressor data from at least one of said second non-volatile memory and said operating memory in said first non-volatile memory; accessing said compressor data in said first non-volatile memory to evaluate compressor performance. accessing a first non-volatile memory associated with a compressor using a processor associated with at least one of a second non-volatile memory and an operating memory; storing compressor data from at least one of said second non-volatile memory and said operating memory in said first non-volatile memory; accessing said compressor data in said first non-volatile memory to evaluate compressor performance.
A method for verifying software, comprising: accessing a job queue, the job queue comprising an indication of one or more jobs to be executed by a worker node, each job indicating a portion of a code to be verified; accessing a resource queue, the resource queue comprising an indication of a one or more worker nodes available to verify a portion of software; and if an addition is made to the job queue or to the resource queue, assigning a job from the job queue to a resource from the resource queue, characterised in that the resource is selected by determining the best match for the characteristics of the selected job among the resources in the resource queue by determining which resource comprises the lowest initialization cost for the selected job. accessing a job queue, the job queue comprising an indication of one or more jobs to be executed by a worker node, each job indicating a portion of a code to be verified; accessing a resource queue, the resource queue comprising an indication of a one or more worker nodes available to verify a portion of software; and if an addition is made to the job queue or to the resource queue, assigning a job from the job queue to a resource from the resource queue, characterised in that the resource is selected by determining the best match for the characteristics of the selected job among the resources in the resource queue by determining which resource comprises the lowest initialization cost for the selected job.
A liquid ejecting apparatus, comprising: a supporting section configured to support a medium; a first ejecting section capable of ejecting a pretreatment liquid onto the medium supported by the supporting section; a first holding section (10, 37) configured to hold the first ejecting section; and a leveling section provided on the first holding section and being capable of moving between a leveling position in contact with an ejection region onto which the pretreatment liquid is ejected and a non-leveling position in non-contact with the ejection region of the medium; and characterized in that, the first holding section is capable of performing a reciprocating movement in a scanning direction where the scanning direction is a direction which is perpendicular to and intersects a direction of movement of the supporting section, the first ejecting section is configured to eject the pretreatment liquid in accordance with the reciprocating movement of the first holding section, and the leveling section is provided at the first holding section to move with the first ejecting section. a supporting section configured to support a medium; a first ejecting section capable of ejecting a pretreatment liquid onto the medium supported by the supporting section; a first holding section (10, 37) configured to hold the first ejecting section; and a leveling section provided on the first holding section and being capable of moving between a leveling position in contact with an ejection region onto which the pretreatment liquid is ejected and a non-leveling position in non-contact with the ejection region of the medium; and characterized in that, the first holding section is capable of performing a reciprocating movement in a scanning direction where the scanning direction is a direction which is perpendicular to and intersects a direction of movement of the supporting section, the first ejecting section is configured to eject the pretreatment liquid in accordance with the reciprocating movement of the first holding section, and the leveling section is provided at the first holding section to move with the first ejecting section.
Feeding device for feeding an optical fiber, preferably a metal coated optical fiber from a coil and for recoiling unused fiber for use in an apparatus for measuring the temperature of a melt comprising a support for a coil, a feeding mechanism for decoiling an optical fiber from the coil and recoiling the optical fiber, at least one motor for driving the feeding mechanism, characterized in that the device comprises a load for the optical fiber which can avoid a spring back effect of the optical fiber from the coil, wherein the load is a guide for the optical fiber in the form of a flexible tube, wherein an upper end of the flexible tube is attached to a housing of the feeding device, and the flexible tube comprises a non-fixed end that ends below an axis for the coil so that at least a lower part of the flexible tube acts as a load for the fiber, wherein the feeding device allows feeding the optical fiber from the coil in a feeding direction from the lower part to the upper end.
A method of increasing site-specific mutagenesis of a nucleotide sequence in an isolated cell comprising: coupling the activity of an engineered homing endonuclease selected from the group consisting of: I-Ltrl, I-Gpil, I-Gzel, I-MpeMI, I-PanMI, I-Crel, I-Onul, I-HjeMI, and I-Anil that cleaves the nucleotide sequence and the activity of a Trex2 or biologically active fragment thereof.
An optoelectronic device comprising: light-emitting components, each light-emitting component being adapted to emit a first radiation at a first wavelength; and photoluminescent blocks, each photoluminescent block facing at least one light-emitting component, photoluminescent blocks being divided into first, second, and third photoluminescent blocks, first photoluminescent blocks being adapted to convert by optical pumping the first radiation into a second radiation at a second wavelength, for each photoluminescent block, a substrate transparent to the first radiation; and walls delimiting openings, said openings being opposite to the light-emitting components, each opening comprising at least one of the photoluminescent blocks, characterized in that the second photoluminescent blocks are adapted to convert by optical pumping the first radiation into a third radiation at a third wavelength and the third photoluminescent blocks are adapted to convert by optical pumping the first radiation into a fourth radiation at a fourth wavelength, and in that each photoluminescent block comprises photoluminescent nanowires or microwires, each comprising a single quantum well or multiple quantum wells, the nanowires or microwires of the photoluminescent block being formed on the substrate. light-emitting components, each light-emitting component being adapted to emit a first radiation at a first wavelength; and photoluminescent blocks, each photoluminescent block facing at least one light-emitting component, photoluminescent blocks being divided into first, second, and third photoluminescent blocks, first photoluminescent blocks being adapted to convert by optical pumping the first radiation into a second radiation at a second wavelength, for each photoluminescent block, a substrate transparent to the first radiation; and walls delimiting openings, said openings being opposite to the light-emitting components, each opening comprising at least one of the photoluminescent blocks, characterized in that the second photoluminescent blocks are adapted to convert by optical pumping the first radiation into a third radiation at a third wavelength and the third photoluminescent blocks are adapted to convert by optical pumping the first radiation into a fourth radiation at a fourth wavelength, and in that each photoluminescent block comprises photoluminescent nanowires or microwires, each comprising a single quantum well or multiple quantum wells, the nanowires or microwires of the photoluminescent block being formed on the substrate.