mhurhangee/ep-ind-claims huggingface dataset:
An injection molding machine, comprising: a motor (160, 183, 210, 350) which includes a stator and a rotor; a rotation transmission shaft which is rotated by the motor (160, 183, 210, 350); a screw shaft (171, 181, 372) which is rotated bya rotation of the rotation transmission shaft; and a screw nut (172, 182, 373) which is screwed to the screw shaft (171, 181, 372) and is moved forward or rearward by a rotation of the screw shaft (171, 181, 372), wherein the motor (160, 183, 210, 350), the rotation transmission shaft, the screw shaft (171, 181, 372), and the screw nut (172, 182, 373) are disposed on the same straight line, and wherein the rotation transmission shaft includes a connection shaft portion which is connected to the rotor in a portion inside the rotor, wherein the stator includes a coil which forms a rotating magnetic field, and the rotor includes a magnet portion which is rotated by the rotating magnetic field, characterized in that the motor (160, 183, 210, 350) includes a motor bearing which rotatably supports the rotor with respect to the stator, and wherein at least a portion of the motor bearing overlaps the coil in an axial direction of the motor (160, 183, 210, 350). a motor (160, 183, 210, 350) which includes a stator and a rotor; a rotation transmission shaft which is rotated by the motor (160, 183, 210, 350); a screw shaft (171, 181, 372) which is rotated bya rotation of the rotation transmission shaft; and a screw nut (172, 182, 373) which is screwed to the screw shaft (171, 181, 372) and is moved forward or rearward by a rotation of the screw shaft (171, 181, 372), wherein the motor (160, 183, 210, 350), the rotation transmission shaft, the screw shaft (171, 181, 372), and the screw nut (172, 182, 373) are disposed on the same straight line, and wherein the rotation transmission shaft includes a connection shaft portion which is connected to the rotor in a portion inside the rotor, wherein the stator includes a coil which forms a rotating magnetic field, and the rotor includes a magnet portion which is rotated by the rotating magnetic field, characterized in that the motor (160, 183, 210, 350) includes a motor bearing which rotatably supports the rotor with respect to the stator, and wherein at least a portion of the motor bearing overlaps the coil in an axial direction of the motor (160, 183, 210, 350).
A cooking top, in particular for household use, comprising: - a base and at least one burner, in particular a gas burner, associated with said base; - a cover, in particular made of glassy material, with at least one aperture for the passage of said at least one burner; - a plate, in particular made of sheet metal, comprising a top portion associated with said cover, the plate further comprising at least one hole associated with said first aperture for the passage of said at least one burner; - a heat shielding element, in particular made of enamelled sheet metal, adapted to be associated with said at least one burner and with said at least one aperture and said at least one hole, wherein said cover comprises a step positioned in the proximity of said aperture, said step constituting a supporting element for the heat shielding element, wherein said heat shielding element comprises an inner edge adapted to be coupled to said burner and an outer edge adapted to be shape-coupled to said step, in particular said outer edge being adapted to rest on the step, and wherein said cooking top comprises at least one first sealing element, in particular a perimetric gasket, positioned between the outer edge of the heat shielding element and said step, said first sealing element being made of flexible and/or elastic material, so that it can adapt itself to the shape of the space created between the step and the heat shielding element when said heat shielding element is inserted in the aperture of the cover. - a base and at least one burner, in particular a gas burner, associated with said base; - a cover, in particular made of glassy material, with at least one aperture for the passage of said at least one burner; - a plate, in particular made of sheet metal, comprising a top portion associated with said cover, the plate further comprising at least one hole associated with said first aperture for the passage of said at least one burner; - a heat shielding element, in particular made of enamelled sheet metal, adapted to be associated with said at least one burner and with said at least one aperture and said at least one hole,
A system for delivering a vascular prosthesis, comprising: an elongate body (11A, 132) comprising a proximal end, a distal end, and a plurality of delivery platforms disposed adjacent the distal end, each of the delivery platforms comprising a recess (11D, 164) extending distally of a radial protrusion, a sheath (13, 136) having a proximal end, a distal end, and a sheath elongate body extending therebetween, the sheath being moveable relative to the elongate body from a first position in which the distal end of the sheath is disposed distally of a distal-most distal delivery platform to a second position in which the distal end of the sheath is disposed proximally of at least one delivery platform; a plurality of self-expanding vascular prostheses (10, 10', 10", 140), each vascular prosthesis having one or more circumferential members formed with discrete struts which form a plurality of cells, and disposed at a corresponding delivery platform, wherein the system is configured to separately place at least two vascular prostheses, one at a time, at a treatment zone at spaced apart locations such that a gap is provided between the distal end of a proximal vascular prosthesis and a proximal end of a distal vascular prosthesis without requiring movement of the delivery platforms, wherein each self-expanding vascular prosthesis in the plurality of self-expanding vascular prostheses comprises a radiopaque marker. an elongate body (11A, 132) comprising a proximal end, a distal end, and a plurality of delivery platforms disposed adjacent the distal end, each of the delivery platforms comprising a recess (11D, 164) extending distally of a radial protrusion, a sheath (13, 136) having a proximal end, a distal end, and a sheath elongate body extending therebetween, the sheath being moveable relative to the elongate body from a first position in which the distal end of the sheath is disposed distally of a distal-most distal delivery platform to a second position in which the distal end of the sheath is disposed proximally of at least one delivery platform; a plurality of self-expanding vascular prostheses (10, 10', 10", 140), each vascular prosthesis having one or more circumferential members formed with discrete struts which form a plurality of cells, and disposed at a corresponding delivery platform, wherein the system is configured to separately place at least two vascular prostheses, one at a time, at a treatment zone at spaced apart locations such that a gap is provided between the distal end of a proximal vascular prosthesis and a proximal end of a distal vascular prosthesis without requiring movement of the delivery platforms, wherein each self-expanding vascular prosthesis in the plurality of self-expanding vascular prostheses comprises a radiopaque marker.
An operating method of a base station for transmitting and receiving pedestrian-to-vehicle, P2V, data, the operating method comprising: identifying (1i-35; lj-35; 1k-35) whether a vehicle user equipment, UE, enters a preset dangerous area; when it is identified that the vehicle UE enters the dangerous area, transmitting (1i-40; lj-40; 1k-40) a message related to the dangerous area to a pedestrian UE, P-UE; receiving (1i-60; lj-60; 1k-60), from the P-UE, a request for allocation of sidelink resources for transmitting and receiving P2V data to and from the vehicle UE; and allocating (li-65; lj-65; 1k-65) the sidelink resources to the P-UE, wherein the message related to the dangerous area includes a P2V indication indicating that the P-UE is located in the dangerous area or indicating the P-UE to transmit the P2V data. identifying (1i-35; lj-35; 1k-35) whether a vehicle user equipment, UE, enters a preset dangerous area; when it is identified that the vehicle UE enters the dangerous area, transmitting (1i-40; lj-40; 1k-40) a message related to the dangerous area to a pedestrian UE, P-UE; receiving (1i-60; lj-60; 1k-60), from the P-UE, a request for allocation of sidelink resources for transmitting and receiving P2V data to and from the vehicle UE; and allocating (li-65; lj-65; 1k-65) the sidelink resources to the P-UE, wherein the message related to the dangerous area includes a P2V indication indicating that the P-UE is located in the dangerous area or indicating the P-UE to transmit the P2V data.
A mobile terminal comprising: a touch screen configured to output a graphic object and sense a touch input; a controller configured to, when a first touch input applied to the touch screen and a second touch input different from the first touch input are sensed in a state in which the first touch input is maintained, output a different graphic object related to the graphic object maintained to be output to at least one region of the touch screen, in response to the second touch input in a state in which output of the graphic object to the region to which the first touch input has been applied is maintained, wherein when the first and second touch inputs (400, 410) are sensed, the controller is configured to divide the touch screen into a plurality of regions (151a, 151b), and the graphic object, which has been output to the region to which the first touch input has been applied, is output to a first region among the plurality of regions and the different graphic object is output to a second region among the plurality of regions, characterized in that the controller is further configured to receive a touch input applied to one region of the first region for magnifying the one region of the first region; magnify the graphic object output to the one region of the first region and the different graphic object output to another region of the second region, wherein the another region of the second region corresponds to the one region of the first region; recognize at least one differing image region, which differs in the magnified one region from the magnified another region; and when the at least one differing image region is recognized, output notification information to the graphic object and the different graphic object indicating the at least one differing image region. a touch screen configured to output a graphic object and sense a touch input; a controller configured to, when a first touch input applied to the touch screen and a second touch input different from the first touch input are sensed in a state in which the first touch input is maintained, output a different graphic object related to the graphic object maintained to be output to at least one region of the touch screen, in response to the second touch input in a state in which output of the graphic object to the region to which the first touch input has been applied is maintained, wherein when the first and second touch inputs (400, 410) are sensed, the controller is configured to divide the touch screen into a plurality of regions (151a, 151b), and the graphic object, which has been output to the region to which the first touch input has been applied, is output to a first region among the plurality of regions and
A process for purifying red mud, comprising the following steps: 1. reduction of the red mud to reduced material, and 2. traversing the reduced material with an oxygen-containing gas in the presence of a catalyst suitable for iron oxidation. 1. reduction of the red mud to reduced material, and 2. traversing the reduced material with an oxygen-containing gas in the presence of a catalyst suitable for iron oxidation.
A riding lawn mower comprising: a traveling vehicle body having traveling wheels (22, 23); a mower device for lawn mowing connected to the traveling vehicle body; a driver seat disposed in a front portion of the traveling vehicle body; an engine disposed in a rear portion of the traveling vehicle body; an engine fan disposed in front of the engine; characterized by an engine control device disposed in front of the engine fan and configured to control the engine, wherein the engine control device has a flat outer shape, and is erected with a surface having a large area facing a front-rear direction. a traveling vehicle body having traveling wheels (22, 23); a mower device for lawn mowing connected to the traveling vehicle body; a driver seat disposed in a front portion of the traveling vehicle body; an engine disposed in a rear portion of the traveling vehicle body; an engine fan disposed in front of the engine; characterized by an engine control device disposed in front of the engine fan and configured to control the engine, wherein the engine control device has a flat outer shape, and is erected with a surface having a large area facing a front-rear direction.
A fertilizer composition comprising granules comprising rice hulls and a urea-containing fertilizer resin, wherein the urea-containing fertilizer resin is uniformly coated on and absorbed into the rice hulls.
A method for preparing Li 6 PS 5 X, wherein X is halogen, comprising at least one step for the preparation of a solution S1 at a temperature T1 comprised from - 200°C to 10°C, said solution S1 comprising a solvent and at least P species under the form of (PS 4) 3-, Li species under the form of Li +, X species under the form of X-and remaining sulfur under the form of polysulfide, followed by a step for removing at least a portion of the solvent from said solution S1 to obtain Li 6 PS 5 X.
Portable power tool, in particular hammer drill driver, having a transmission arrangement (14a; 14b), a hammer percussion mechanism (16a; 16b) and a tool spindle (18a; 18b), wherein the transmission arrangement (14a; 14b) has at least one transmission stage, which is configured as a planetary gear transmission stage (92a, 94a, 96a; 92b, 94b, 96b) and effects a gear reduction, and at least one transmission stage (98a; 98b) that is connected downstream of the planetary gear transmission stage (92a, 94a, 96a; 92b, 94b, 96b) and is configured as a planetary gear transmission stage, wherein the downstream transmission stage (98a; 98b) has at least one transmission stage element (132a; 132b) which is intended to divide a force flux in order to provide different speeds for percussion operation and rotary operation, characterized in that the downstream transmission stage (98a; 98b) is intended to increase a speed for percussion operation compared with the at least one upstream transmission stage.
A treatment system (10, 1000), for delivering radiation to a patient, comprising: an eye model derived from anatomic data of a patient's eye; an emitter that emits a radiation beam; a position guide, coupled to the emitter, that is configured to position, based on the eye model, the emitter with respect to a location on or in the eye, such that the radiation beam is delivered to a target on or in the eye; and a planning module configured to determine, based on the eye model, at least two of a beam target, a beam intensity, a beam energy, a beam trajectory, a treatment field size, a treatment field shape, a distance from the emitter to the target, an exposure time, and a dose; wherein the position guide is configured to position the emitter, based on information from the planning module, such that the emitter directs a first radiation beam at a first position through a first portion of the eye to a treatment region within the eye. an eye model derived from anatomic data of a patient's eye; an emitter that emits a radiation beam; a position guide, coupled to the emitter, that is configured to position, based on the eye model, the emitter with respect to a location on or in the eye, such that the radiation beam is delivered to a target on or in the eye; and a planning module configured to determine, based on the eye model, at least two of a beam target, a beam intensity, a beam energy, a beam trajectory, a treatment field size, a treatment field shape, a distance from the emitter to the target, an exposure time, and a dose; wherein the position guide is configured to position the emitter, based on information from the planning module, such that the emitter directs a first radiation beam at a first position through a first portion of the eye to a treatment region within the eye.
A flexible abrasive article comprising: a unitary backing having first and second opposed major surfaces and comprising a thermoplastic polyurethane, wherein the backing has an average thickness of from 102 to 152 microns, a tensile strength of 3.45 to 22.1 MPa, and an ultimate elongation of 230 to 530 percent, and less than 10 percent of intrinsic voids based on the total volume of the backing; and an abrasive layer disposed on and secured to the unitary backing, wherein the abrasive layer comprises: a make layer disposed on at least a portion of the first major surface of the unitary backing, wherein the make layer comprises a polymerized reaction product of components comprising at least one polyepoxide and at least one polyfunctional (meth)acrylate; abrasive particles secured to the make layer; and a size layer disposed on at least a portion of the make layer and abrasive particles, wherein the size layer precursor comprises a polymerized reaction product of components comprising at least one polyepoxide and at least one polyfunctional (meth)acrylate, wherein the second major surface of the unitary backing forms an outer major surface of the flexible abrasive article. a unitary backing having first and second opposed major surfaces and comprising a thermoplastic polyurethane, wherein the backing has an average thickness of from 102 to 152 microns, a tensile strength of 3.45 to 22.1 MPa, and an ultimate elongation of 230 to 530 percent, and less than 10 percent of intrinsic voids based on the total volume of the backing; and an abrasive layer disposed on and secured to the unitary backing, wherein the abrasive layer comprises: a make layer disposed on at least a portion of the first major surface of the unitary backing, wherein the make layer comprises a polymerized reaction product of components comprising at least one polyepoxide and at least one polyfunctional (meth)acrylate; abrasive particles secured to the make layer; and a size layer disposed on at least a portion of the make layer and abrasive particles, wherein the size layer precursor comprises a polymerized reaction product of components comprising at least one polyepoxide and at least one polyfunctional (meth)acrylate, wherein the second major surface of the unitary backing forms an outer major surface of the flexible abrasive article. a make layer disposed on at least a portion of the first major surface of the unitary backing, wherein the make layer comprises a polymerized reaction product of components comprising at least one polyepoxide and at least one polyfunctional (meth)acrylate; abrasive particles secured to the make layer; and a size layer disposed on at least a portion of the make layer and abrasive particles, wherein the size layer precursor comprises a polymerized reaction product of components comprising at least one polyepoxide and at least one polyfunctional (meth)acrylate, wherein the second major surface of the unitary backing forms an outer major surface of the flexible abrasive article.
A method to determine a valid input sequence for an unknown binary program, wherein a valid input sequence is used to test the unknown binary program, the method comprising: obtaining a first input sequence for an unknown binary program, the unknown binary program being a binary program with a specification, documentation and/or source code which is/are unavailable; instrumenting the unknown binary program such that execution of the instrumented unknown binary program results in generation of a branch count and an execution trace; performing a plurality of executions of the instrumented unknown binary program, each of the plurality of executions using a different one of a plurality of different mutations of the first input sequence as an input and each of the plurality of executions resulting in generation of a branch count and an execution trace; selecting one of the plurality of different mutations of the first input sequence when a first branch count, which is from the execution using the one of the plurality of different mutations as the input to the instrumented unknown binary program, is different from a second branch count from the execution of the instrumented unknown binary program using the first input sequence as the input to the instrumented unknown binary program; negating a branch condition in the execution trace corresponding to the selected one of the plurality of different mutations of the first input sequence; creating a symbolic path condition corresponding to the execution trace with the negated branch condition; and solving the symbolic path condition to obtain a second input sequence. obtaining a first input sequence for an unknown binary program, the unknown binary program being a binary program with a specification, documentation and/or source code which is/are unavailable; instrumenting the unknown binary program such that execution of the instrumented unknown binary program results in generation of a branch count and an execution trace; performing a plurality of executions of the instrumented unknown binary program, each of the plurality of executions using a different one of a plurality of different mutations of the first input sequence as an input and each of the plurality of executions resulting in generation of a branch count and an execution trace; selecting one of the plurality of different mutations of the first input sequence when a first branch count, which is from the execution using the one of the plurality of different mutations as the input to the instrumented unknown binary program, is different from a second branch count from the execution of the instrumented unknown binary program using the first input sequence as the input to the instrumented unknown binary program; negating a branch condition in the execution trace corresponding to the selected one of the plurality of different mutations of the first input sequence; creating a symbolic path condition corresponding to the execution trace with the negated branch condition; and solving the symbolic path condition to obtain a second input sequence.