mhurhangee/ep-ind-claims huggingface dataset:
A rotary table configured to receive surface mount technology, SMT, components onto a circuit board (18, 210, 420, 506, 604) associated therewith, comprising: a frame (12, 208, 306, 406) configured to be inserted into a pick and place machine; wherein the frame (12, 208, 306, 406) comprises a receiving inset therein; a fixture (16, 206, 304, 422, 502) configured to be removably inserted to the receiving inset; a plurality of roller bearings (22, 204) interactively associated with the fixture (16, 206, 304, 422, 502), and which are configured to impart a low friction roll to at least a perimeter portion of the fixture (16, 206, 304, 422, 502); and at least one guide on the frame (12, 208, 306, 406) configured to at least partially positional maintain the circuit board (18, 210, 420, 506, 604) associated with the fixture (16, 206, 304, 422, 502); wherein the fixture (16, 206, 304, 422, 502) is configured to rotate across the plurality of roller bearings (22, 204) to thereby rotate the circuit board (18, 210, 420, 506, 604) about the receiving inset, such that the rotation of the circuit board (18, 210, 420, 506, 604) variably associates radial aspects of the circuit board (18, 210, 420, 506, 604) to an operation range of at least one pick and place robot; characterized in that, the rotary table further comprises an upper bearing (310, 410) provided at either side of a circuit board guide and a lower bearing (320, 412) configured to support the fixture (16, 206, 304, 422, 502) just inside an outer edge of the circuit board (18, 210, 420, 506, 604). a frame (12, 208, 306, 406) configured to be inserted into a pick and place machine; wherein the frame (12, 208, 306, 406) comprises a receiving inset therein; a fixture (16, 206, 304, 422, 502) configured to be removably inserted to the receiving inset; a plurality of roller bearings (22, 204) interactively associated with the fixture (16, 206, 304, 422, 502), and which are configured to impart a low friction roll to at least a perimeter portion of the fixture (16, 206, 304, 422, 502); and at least one guide on the frame (12, 208, 306, 406) configured to at least partially positional maintain the circuit board (18, 210, 420, 506, 604) associated with the fixture (16, 206, 304, 422, 502); wherein the fixture (16, 206, 304, 422, 502) is configured to rotate across the plurality of roller bearings (22, 204) to thereby rotate the circuit board (18, 210, 420, 506, 604) about the receiving inset, such that the rotation of the circuit board (18, 210, 420, 506, 604) variably associates radial aspects of the circuit board (18, 210, 420, 506, 604) to an operation range of at least one pick and place robot; characterized in that, the rotary table further comprises an upper bearing (310, 410) provided at either side of a circuit board guide and a lower bearing (320, 412) configured to support the fixture (16, 206, 304, 422, 502) just inside an outer edge of the circuit board (18, 210, 420, 506, 604).
A method of controlling a welding system comprising: providing a welding wire to a welding torch at a first wire feed speed; providing a pulsed power output to the welding wire via a contact point of the welding torch; changing, utilizing a controller, the wire feed speed of the welding wire to a second wire feed speed, characterized by determining, utilizing a sensing system, a contact-point-to-work-distance between the contact point and a workpiece; and changing the wire feed speed to the second wire feed speed based at least in part on the determined contact-point-to-work-distance. providing a welding wire to a welding torch at a first wire feed speed; providing a pulsed power output to the welding wire via a contact point of the welding torch; changing, utilizing a controller, the wire feed speed of the welding wire to a second wire feed speed, characterized by determining, utilizing a sensing system, a contact-point-to-work-distance between the contact point and a workpiece; and changing the wire feed speed to the second wire feed speed based at least in part on the determined contact-point-to-work-distance.
A computer-implemented method when executed on data processing hardware causes the data processing hardware to perform operations comprising: receiving a sequence of acoustic frames characterizing one or more utterances; and at each of a plurality of time steps: generating, by an encoder network of a speech recognition model, a higher order feature representation for a corresponding acoustic frame in the sequence of acoustic frames; generating, by a prediction network of the speech recognition model, a hidden representation for a corresponding sequence of non-blank symbols output by a final softmax layer of the speech recognition model; and generating, by a first joint network of the speech recognition model that receives the higher order feature representation generated by the encoder network and the hidden representation generated by the prediction network, a probability distribution that the corresponding time step corresponds to a pause and an end of speech. receiving a sequence of acoustic frames characterizing one or more utterances; and at each of a plurality of time steps: generating, by an encoder network of a speech recognition model, a higher order feature representation for a corresponding acoustic frame in the sequence of acoustic frames; generating, by a prediction network of the speech recognition model, a hidden representation for a corresponding sequence of non-blank symbols output by a final softmax layer of the speech recognition model; and generating, by a first joint network of the speech recognition model that receives the higher order feature representation generated by the encoder network and the hidden representation generated by the prediction network, a probability distribution that the corresponding time step corresponds to a pause and an end of speech. generating, by an encoder network of a speech recognition model, a higher order feature representation for a corresponding acoustic frame in the sequence of acoustic frames; generating, by a prediction network of the speech recognition model, a hidden representation for a corresponding sequence of non-blank symbols output by a final softmax layer of the speech recognition model; and generating, by a first joint network of the speech recognition model that receives the higher order feature representation generated by the encoder network and the hidden representation generated by the prediction network, a probability distribution that the corresponding time step corresponds to a pause and an end of speech.
A light scanning device comprising: a light source that emits laser light; a mirror device that includes a movable mirror swinging about at least one axis and directionally changes the laser light emitted from the light source by reflecting the laser light using the movable mirror; and a condensing optical system that condenses the laser light directionally changed by the mirror device, wherein the condensing optical system includes a half-silvered mirror that has a concave surface, and a diffusion plate in which a plurality of micromirrors that diffuse the laser light transmitted through the half-silvered mirror from the concave surface side are formed. a light source that emits laser light; a mirror device that includes a movable mirror swinging about at least one axis and directionally changes the laser light emitted from the light source by reflecting the laser light using the movable mirror; and a condensing optical system that condenses the laser light directionally changed by the mirror device, wherein the condensing optical system includes a half-silvered mirror that has a concave surface, and a diffusion plate in which a plurality of micromirrors that diffuse the laser light transmitted through the half-silvered mirror from the concave surface side are formed.
A method, comprising: receiving first information from a first sensor located on a drill floor of a marine drill; receiving second information from a second sensor located on a top drive of the marine drill; and calculating a physical parameter based, in part, on the first information received from the first sensor and the second information received from the second sensor. receiving first information from a first sensor located on a drill floor of a marine drill; receiving second information from a second sensor located on a top drive of the marine drill; and calculating a physical parameter based, in part, on the first information received from the first sensor and the second information received from the second sensor.
A transfer paper for heat transferring of ink to a textile, the transfer paper comprising a base paper and a coating, characterized in that the transfer paper having grease proof characteristics at a kit level of at least 3, such as 3 to 8, measured as disclosed herein, and in that the transfer paper having a dimensional stability of less than 1 % over a period of 10 seconds, measured as disclosed herein, wherein the coating comprises CMC and sorbitol, wherein the coating before application comprises CMC in an amount of 5-30% by weight of the coating, wherein the coating before application comprises sorbitol in an amount of 5-50% by weight of the coating, wherein the transfer paper has a Cobb value of 25 to 50 g/m2, measured as disclosed herein, and wherein the transfer paper has a weight at most 70 grams per square meter. the transfer paper comprising a base paper and a coating, characterized in that the transfer paper having grease proof characteristics at a kit level of at least 3, such as 3 to 8, measured as disclosed herein, and in that the transfer paper having a dimensional stability of less than 1 % over a period of 10 seconds, measured as disclosed herein, wherein the coating comprises CMC and sorbitol, wherein the coating before application comprises CMC in an amount of 5-30% by weight of the coating, wherein the coating before application comprises sorbitol in an amount of 5-50% by weight of the coating, wherein the transfer paper has a Cobb value of 25 to 50 g/m2, measured as disclosed herein, and wherein the transfer paper has a weight at most 70 grams per square meter.
Energy-saving steel production apparatus, including an hot-rolling production line and a continuous casting equipment for producing semi-manufactured products or billet, said production line and said equipment facing one each other and being connected through fast transport means moving said billet, which are wholly solidified and which have an average temperature between 850 and 900 °C, said hot-rolling production line having intermediate rolls, which are provided with a tunnel-type furnace, preferably an induction furnace; said intermediate rolls facing a finishing train, which comprises a plurality of cages, and the layout of the apparatus providing a direct connection from the continuous casting equipment to the intermediate rolls of said hot-rolling production line by means of said fast transport means; and the rolling temperature of said billets being greater than 1000°C.
A refrigerator, comprising: a main body having a freezing chamber, an evaporator provided at a rear of the freezing chamber, and a refrigerating chamber provided on an upper side of the freezing chamber; a door opening and closing the refrigerating chamber; a shelf provided in the inside of the refrigerating chamber; an ice maker provided in the inside of the refrigerating chamber; a container provided at a rear surface of the door and storing ice therein; said refrigerator being characterized by: a cooling air duct extending along the rear surface of the refrigerating chamber and the shelf, whose one end is communicated with a space accommodating the evaporator and other end is positioned at a front end of the shelf; the said other end of the cooling air duct includes a discharge hole, and wherein the other end of the cooling air duct is positioned at a place higher than an opening part of the container, and has a downwardly inclined surface to discharge the cold air into the container. a main body having a freezing chamber, an evaporator provided at a rear of the freezing chamber, and a refrigerating chamber provided on an upper side of the freezing chamber; a door opening and closing the refrigerating chamber; a shelf provided in the inside of the refrigerating chamber; an ice maker provided in the inside of the refrigerating chamber; a container provided at a rear surface of the door and storing ice therein; said refrigerator being characterized by: a cooling air duct extending along the rear surface of the refrigerating chamber and the shelf, whose one end is communicated with a space accommodating the evaporator and other end is positioned at a front end of the shelf; the said other end of the cooling air duct includes a discharge hole, and wherein the other end of the cooling air duct is positioned at a place higher than an opening part of the container, and has a downwardly inclined surface to discharge the cold air into the container. a cooling air duct extending along the rear surface of the refrigerating chamber and the shelf, whose one end is communicated with a space accommodating the evaporator and other end is positioned at a front end of the shelf; the said other end of the cooling air duct includes a discharge hole, and wherein the other end of the cooling air duct is positioned at a place higher than an opening part of the container, and has a downwardly inclined surface to discharge the cold air into the container.
A medical fluid delivery system (110,210) comprising: a medical fluid delivery machine (90, 212) including at least one sensor component producing associated output data related to operation or performance of at least one component including at least one of a filter (40, 80), a medical fluid delivery pump (30, 64, 96), or a disposable item (100, 220) for a medical fluid delivery treatment, the associated output data including a flowrate; at least one component replacement limit for the at least one component, at least one of the component replacement limits including a component replacement flowrate; at least one component soft limit for the at least one component the soft limit indicative of a degradation in performance of the at least one component; and a computer (50, 120) programmed to store the at least one component replacement limit and the at least one component soft limit, analyze the output data in relation to the at least one component replacement limit and the at least one component soft limit, and provide an indication of how well the at least one component is performing relative to its component replacement limit, the indication including whether the component is operating between its component soft limit and its component replacement limit. a medical fluid delivery machine (90, 212) including at least one sensor component producing associated output data related to operation or performance of at least one component including at least one of a filter (40, 80), a medical fluid delivery pump (30, 64, 96), or a disposable item (100, 220) for a medical fluid delivery treatment, the associated output data including a flowrate; at least one component replacement limit for the at least one component, at least one of the component replacement limits including a component replacement flowrate; at least one component soft limit for the at least one component the soft limit indicative of a degradation in performance of the at least one component; and a computer (50, 120) programmed to store the at least one component replacement limit and the at least one component soft limit, analyze the output data in relation to the at least one component replacement limit and the at least one component soft limit, and provide an indication of how well the at least one component is performing relative to its component replacement limit, the indication including whether the component is operating between its component soft limit and its component replacement limit. store the at least one component replacement limit and the at least one component soft limit, analyze the output data in relation to the at least one component replacement limit and the at least one component soft limit, and provide an indication of how well the at least one component is performing relative to its component replacement limit, the indication including whether the component is operating between its component soft limit and its component replacement limit.
A photovoltaic cell device comprising: at least one photovoltaic cell for converting light energy received by said photovoltaic cell device into electrical energy; at least one light emitting element (50; 52; 54; 55; 56; 72; 74; 76, 78; 79) adapted to switchably convert electrical energy into light energy; said photovoltaic cell device being adapted to provide a first operation mode in which said at least one light emitting element (50; 52; 54; 55; 56; 72; 74; 76, 78; 79) is active for converting electrical energy into light energy, and a second operation mode in which said at least one light emitting element (50; 52; 54; 55; 56; 72; 74; 76, 78; 79) is not active while said at least one photovoltaic cell is active for converting light energy received by the photovoltaic cell device into electrical energy; wherein the photovoltaic cell device further comprises a switchable reflector arranged between said at least one photovoltaic cell and said at least one light emitting element (50; 55; 56) and adapted to reflect light energy generated by said at least one light emitting element (50; 55; 56) during said first operation mode for reducing absorption of light emitted by the light emitting element (50; 55; 56) by the photovoltaic cell. at least one photovoltaic cell for converting light energy received by said photovoltaic cell device into electrical energy; at least one light emitting element (50; 52; 54; 55; 56; 72; 74; 76, 78; 79) adapted to switchably convert electrical energy into light energy; said photovoltaic cell device being adapted to provide a first operation mode in which said at least one light emitting element (50; 52; 54; 55; 56; 72; 74; 76, 78; 79) is active for converting electrical energy into light energy, and a second operation mode in which said at least one light emitting element (50; 52; 54; 55; 56; 72; 74; 76, 78; 79) is not active while said at least one photovoltaic cell is active for converting light energy received by the photovoltaic cell device into electrical energy; wherein the photovoltaic cell device further comprises a switchable reflector arranged between said at least one photovoltaic cell and said at least one light emitting element (50; 55; 56) and adapted to reflect light energy generated by said at least one light emitting element (50; 55; 56) during said first operation mode for reducing absorption of light emitted by the light emitting element (50; 55; 56) by the photovoltaic cell.
Rail vehicle comprising: - a wastewater container; - a suction-extraction line, which is connected to the wastewater container and is led from the wastewater container to a suction-extraction connection for extraction of the wastewater by suction; - a shut-off valve, which is incorporated in the suction-extraction line and, in an open state, opens the suction-extraction line and, in a closed state, closes the suction-extraction line; - a compressed-air line, which is connected to the suction-extraction line via a compressed-air connection and is configured to introduce compressed air into the suction-extraction line via the compressed-air connection with the shut-off valve in the closed state, wherein the compressed-air connection is positioned between the shut-off valve and the wastewater container. - a wastewater container; - a suction-extraction line, which is connected to the wastewater container and is led from the wastewater container to a suction-extraction connection for extraction of the wastewater by suction; - a shut-off valve, which is incorporated in the suction-extraction line and, in an open state, opens the suction-extraction line and, in a closed state, closes the suction-extraction line; - a compressed-air line, which is connected to the suction-extraction line via a compressed-air connection and is configured to introduce compressed air into the suction-extraction line via the compressed-air connection with the shut-off valve in the closed state, wherein the compressed-air connection is positioned between the shut-off valve and the wastewater container.
A compound selected from: (3' S)-3-(3-(6-Methyl-2-oxo-1-(2,2,2-trifluoroethyl)-5-(2,3,5-trifluorophenyl)piperidin-3-yl)prop-1-en-1-yl)-5,7-dihydrospiro[cyclopenta[ b]pyridine-6,3'-pyrrolo[2,3- b]pyridin]-2'(1' H)-one; (6 S)-3-(1,1-Difluoro-2-(((3 S,5 S,6 R)-6-methyl-2-oxo-5-phenyl-1-(2,2,2-trifluoroethyl)piperidin-3-yl)amino)ethyl)-5,7-dihydrospiro[cyclopenta[ b]pyridine-6,3'-pyrrolo[2,3- b]pyridin]-2'(1' H)-one; and (6 S)- N- [(3 S,5 S,6 R)-6-Methyl-2-oxo-5-phenyl-1-(2,2,2-trifluoroethyl)piperidin-3-yl]-2'-oxo-1',2',5,7-tetrahydrospiro[cyclopenta[ b]pyridine-6,3'-pyrrolo[2,3- b]pyridine]-3-sulfonamide; or a pharmaceutically acceptable salt thereof. (3' S)-3-(3-(6-Methyl-2-oxo-1-(2,2,2-trifluoroethyl)-5-(2,3,5-trifluorophenyl)piperidin-3-yl)prop-1-en-1-yl)-5,7-dihydrospiro[cyclopenta[ b]pyridine-6,3'-pyrrolo[2,3- b]pyridin]-2'(1' H)-one; (6 S)-3-(1,1-Difluoro-2-(((3 S,5 S,6 R)-6-methyl-2-oxo-5-phenyl-1-(2,2,2-trifluoroethyl)piperidin-3-yl)amino)ethyl)-5,7-dihydrospiro[cyclopenta[ b]pyridine-6,3'-pyrrolo[2,3- b]pyridin]-2'(1' H)-one; and (6 S)- N- [(3 S,5 S,6 R)-6-Methyl-2-oxo-5-phenyl-1-(2,2,2-trifluoroethyl)piperidin-3-yl]-2'-oxo-1',2',5,7-tetrahydrospiro[cyclopenta[ b]pyridine-6,3'-pyrrolo[2,3- b]pyridine]-3-sulfonamide;
An aircraft assembly comprising a bush and a lug, the bush being mounted within the lug, the lug and bush together defining a lug-bush interface between adjacent faces of the lug and bush, and a recess defined by a generally annular groove formed into one or both of the lug and the bush, the recess extending from a first end of the lug-bush interface into and along a portion of the lug-bush interface to define a cantilevered end portion of the bush characterised in that the recess is partially or completely filled with a sealant to provide a moisture tight seal between the lug and bush.