mhurhangee/ep-ind-claims huggingface dataset:
A balanced arm (1; 101; 201; 301) for transferring a fluid product from a first location having a support surface for the arm to a second location, having a transfer compass comprising an inner transfer member (8; 108; 208; 308) and an outer transfer member (21; 121; 221; 321), articulated together, and a counterweight system (3; 103; 203; 303) for balancing the transfer compass, characterized in that the compass is installed on a turntable (15; 115; 215; 315) rotatable about a vertical axis, to rotationally drive the transfer compass about that axis, the turntable is mounted directly on the support surface via a rolling bearing (16; 116) which is configured to enable the turntable to turn about the vertical axis, the counterweight system (3; 103; 203; 303) comprises at least one primary counterweight (7; 107; 207; 207'; 307; 307') mounted on a support fixed to the turntable, so as to be able to turn relative to the support about an axis (6; 106; 206; 306) of horizontal general orientation, and functionally linked to the inner transfer member (8; 108; 208; 308) to provide the balancing of the transfer compass, and the inner transfer member is supported so as to be able to turn about another axis (24; 124; 224; 324) of horizontal general orientation which is located below the said axis of horizontal general orientation.
A supercharged internal combustion engine, comprising: a compressor arranged in an intake passage through which air that is taken into a combustion chamber flows and configured to supercharge intake air; an exhaust gas recirculation passage (32, 62) that connects an exhaust passage through which exhaust gas that is discharged from the combustion chamber flows and a compressor upstream passage that is the intake passage on an upstream side of the compressor; an exhaust gas recirculation valve configured to open and close the exhaust gas recirculation passage (32, 62); a bypass passage (38, 64) for releasing gas that has been supercharged by the compressor outside a compressor downstream passage that is the intake passage on a downstream side of the compressor; a bypass valve; and an electronic control unit; wherein the bypass passage (38, 64) is adapted to connect the compressor downstream passage with the exhaust gas recirculation passage (32, 62); the supercharged internal combustion engine being characterized in that the electronic control unit is configured to open the exhaust gas recirculation valve to cause a recirculation exhaust gas to be taken into the compressor; and when the electronic control unit has opened the exhaust gas recirculation valve to cause a recirculation exhaust gas to be taken into the compressor, to open the bypass passage (38, 64) by opening to release, outside the compressor downstream passage, the gas that has been supercharged by the compressor. a compressor arranged in an intake passage through which air that is taken into a combustion chamber flows and configured to supercharge intake air; an exhaust gas recirculation passage (32, 62) that connects an exhaust passage through which exhaust gas that is discharged from the combustion chamber flows and a compressor upstream passage that is the intake passage on an upstream side of the compressor; an exhaust gas recirculation valve configured to open and close the exhaust gas recirculation passage (32, 62); a bypass passage (38, 64) for releasing gas that has been supercharged by the compressor outside a compressor downstream passage that is the intake passage on a downstream side of the compressor; a bypass valve; and an electronic control unit; wherein the bypass passage (38, 64) is adapted to connect the compressor downstream passage with the exhaust gas recirculation passage (32, 62); the supercharged internal combustion engine being characterized in that the electronic control unit is configured to open the exhaust gas recirculation valve to cause a recirculation exhaust gas to be taken into the compressor; and when the electronic control unit has opened the exhaust gas recirculation valve to cause a recirculation exhaust gas to be taken into the compressor, to open the bypass passage (38, 64) by opening to release, outside the compressor downstream passage, the gas that has been supercharged by the compressor.
An apparatus comprising: a differential voltage doubler configured to receive a differential input voltage that includes a first input voltage and that further includes a second input voltage and further configured to generate a differential output voltage that includes a first output voltage and that further includes a second output voltage, wherein the differential output voltage is double the differential input voltage, wherein the differential voltage doubler comprises a first constituent voltage doubler (200, 200.1), the first constituent voltage doubler (200, 200.1) comprising: a first capacitor having a first terminal and a second terminal, wherein the first terminal is configured to be coupled to the first input voltage during a charging phase of the first constituent voltage doubler (200, 200.1) and the second terminal is configured to be coupled to the second input voltage during the charging phase of the first constituent voltage doubler (200, 200.1), the first terminal further configured to be coupled to the first output voltage during a first output phase of the first constituent voltage doubler (200, 200.1) and the second terminal further configured to be coupled to a common-mode voltage during the first output phase, the first output phase not overlapping chronologically with the charging phase; and a second capacitor having a third terminal and a fourth terminal, the third terminal configured to be coupled to the first input voltage during the charging phase and the fourth terminal configured to be coupled to the second input voltage during the charging phase, the third terminal further configured to be coupled to the common-mode voltage during the first output phase and the fourth terminal further configured to be coupled to the second output voltage during the first output phase. a first capacitor having a first terminal and a second terminal, wherein the first terminal is configured to be coupled to the first input voltage during a charging phase of the first constituent voltage doubler (200, 200.1) and the second terminal is configured to be coupled to the second input voltage during the charging phase of the first constituent voltage doubler (200, 200.1), the first terminal further configured to be coupled to the first output voltage during a first output phase of the first constituent voltage doubler (200, 200.1) and the second terminal further configured to be coupled to a common-mode voltage during the first output phase, the first output phase not overlapping chronologically with the charging phase; and a second capacitor having a third terminal and a fourth terminal, the third terminal configured to be coupled to the first input voltage during the charging phase and the fourth terminal configured to be coupled to the second input voltage during the charging phase, the third terminal further configured to be coupled to the common-mode voltage during the first output phase and the fourth terminal further configured to be coupled to the second output voltage during the first output phase.
A vehicle periphery monitoring apparatus comprising: a camera configured to image an external environment of a vehicle periphery; an electronic control unit configured to receive information from a navigation device and generate a display image of the external environment based on image information from the camera; and a display unit configured to display the display image, wherein the electronic control unit is configured to generate the display image such that the display image includes a first display image (50; 60) from a first predetermined viewpoint from which one of right and left side surfaces of a host vehicle and a rear portion or a front portion of the host vehicle are obliquely seen from above, characterised in that the electronic control unit is configured to generate and output the display image including the first display image (50, 60) in a predetermined first traveling status of the host vehicle where the traveling distance after the right or left turn point arrival trigger is received from the navigation device is within a predetermined distance, wherein the right or left turn point arrival trigger is an event in which the vehicle approaches or arrives at the corresponding right or left turn point. a camera configured to image an external environment of a vehicle periphery; an electronic control unit configured to receive information from a navigation device and generate a display image of the external environment based on image information from the camera; and a display unit configured to display the display image, wherein the electronic control unit is configured to generate the display image such that the display image includes a first display image (50; 60) from a first predetermined viewpoint from which one of right and left side surfaces of a host vehicle and a rear portion or a front portion of the host vehicle are obliquely seen from above, characterised in that the electronic control unit is configured to generate and output the display image including the first display image (50, 60) in a predetermined first traveling status of the host vehicle where the traveling distance after the right or left turn point arrival trigger is received from the navigation device is within a predetermined distance, generate the display image such that the display image includes a first display image (50; 60) from a first predetermined viewpoint from which one of right and left side surfaces of a host vehicle and a rear portion or a front portion of the host vehicle are obliquely seen from above, characterised in that the electronic control unit is configured to generate and output the display image including the first display image (50, 60) in a predetermined first traveling status of the host vehicle where the traveling distance after the right or left turn point arrival trigger is received from the navigation device is within a predetermined distance,
A cleaning apparatus comprising: a vacuum cleaner including a battery configured to generate a suction force and a dust collecting chamber in which foreign substances suctioned by the suction force are collected; and a docking station connected to the vacuum cleaner and having a long axis extending in a first direction, wherein the docking station includes: a charging part provided to come in contact with the battery to charge the battery; characterized in that the docking station further includes: a docking part connected to the dust collecting chamber to remove the foreign substances collected in the dust collecting chamber; and a suction device configured to suction the foreign substances and internal air in the dust collecting chamber docked onto the docking part, wherein the docking part includes a docking opening that is opened in a second direction different from the first direction such that at least a portion of the dust collecting chamber is inserted into the docking opening. a vacuum cleaner including a battery configured to generate a suction force and a dust collecting chamber in which foreign substances suctioned by the suction force are collected; and a docking station connected to the vacuum cleaner and having a long axis extending in a first direction, wherein the docking station includes: a charging part provided to come in contact with the battery to charge the battery; characterized in that the docking station further includes: a docking part connected to the dust collecting chamber to remove the foreign substances collected in the dust collecting chamber; and a suction device configured to suction the foreign substances and internal air in the dust collecting chamber docked onto the docking part, wherein the docking part includes a docking opening that is opened in a second direction different from the first direction such that at least a portion of the dust collecting chamber is inserted into the docking opening. a charging part provided to come in contact with the battery to charge the battery; characterized in that the docking station further includes: a docking part connected to the dust collecting chamber to remove the foreign substances collected in the dust collecting chamber; and a suction device configured to suction the foreign substances and internal air in the dust collecting chamber docked onto the docking part, wherein the docking part includes a docking opening that is opened in a second direction different from the first direction such that at least a portion of the dust collecting chamber is inserted into the docking opening. a docking part connected to the dust collecting chamber to remove the foreign substances collected in the dust collecting chamber; and a suction device configured to suction the foreign substances and internal air in the dust collecting chamber docked onto the docking part, wherein the docking part includes a docking opening that is opened in a second direction different from the first direction such that at least a portion of the dust collecting chamber is inserted into the docking opening.
A glass-wiping robot comprising a robot main body, a power cord connected to the robot main body, characterized by a safety buckle wound by the power cord, wherein a suction cup is provided on said safety buckle for sucking the safety buckle onto a glass.
An aerial image device comprising: a cradle configured to mount therein an electronic device including a display panel; a half mirror disposed on one surface of the cradle to face the display panel of the electronic device mounted on the cradle in the state of being inclined with respect to the display panel; a sensor that is configured to detect a position of a user and to adjust a an inclination angle of the display panel relative to the half mirror, a retroreflective member (233, 433) disposed in the cradle inclined with respect to the half mirror, wherein the half mirror is configured to reflect a first output image output from the display panel to be incident on the retroreflective member (233, 433) and to transmit an image reflected by the retroreflective member (233, 433) so as to form a first aerial image corresponding to the first output image in an image-forming plane S, wherein the position of the image-forming plane S is adjusted by adjusting an inclination angle of the display panel relative to the half mirror. a cradle configured to mount therein an electronic device including a display panel; a half mirror disposed on one surface of the cradle to face the display panel of the electronic device mounted on the cradle in the state of being inclined with respect to the display panel; a sensor that is configured to detect a position of a user and to adjust a an inclination angle of the display panel relative to the half mirror, a retroreflective member (233, 433) disposed in the cradle inclined with respect to the half mirror, wherein the half mirror is configured to reflect a first output image output from the display panel to be incident on the retroreflective member (233, 433) and to transmit an image reflected by the retroreflective member (233, 433) so as to form a first aerial image corresponding to the first output image in an image-forming plane S, wherein the position of the image-forming plane S is adjusted by adjusting an inclination angle of the display panel relative to the half mirror.
A method of making a silica crucible in a mold cavity of the type in which ambient atmosphere can be drawn through silica grain in the cavity comprising: • forming a silica grain layer in a cavity of the mold having an opening and having ports (18; 20) operable to draw gas through the grain layer • positioning a shield plate over the opening; • introducing a gas into the mold cavity, comprising exhausting ambient atmosphere from the mold cavity after introducing the gas whereby said gas comprises helium, hydrogen or mixtures thereof; • heating the silica grain layer by applying electric power to a set of electrodes (60, 62) while drawing ambient atmosphere through the silica grain using less than 40 % of the installed vacuum power; and • thereafter fusing at least a portion of said silica grain layer while drawing ambient atmosphere through the silica grain, by using at least 80 % of the installed vacuum power. • forming a silica grain layer in a cavity of the mold having an opening and having ports (18; 20) operable to draw gas through the grain layer • positioning a shield plate over the opening; • introducing a gas into the mold cavity, comprising exhausting ambient atmosphere from the mold cavity after introducing the gas whereby said gas comprises helium, hydrogen or mixtures thereof; • heating the silica grain layer by applying electric power to a set of electrodes (60, 62) while drawing ambient atmosphere through the silica grain using less than 40 % of the installed vacuum power; and • thereafter fusing at least a portion of said silica grain layer while drawing ambient atmosphere through the silica grain, by using at least 80 % of the installed vacuum power.
A method for producing an alkylaryl carbonate comprising: a) contacting a stream comprising an aromatic hydroxy compound and water, and a stream comprising a dialkylcarbonate in a reactive distillation column containing a bed of heterogeneous transesterification catalyst, the bed having a top and a bottom; and b) withdrawing a product stream comprising the alkylaryl carbonate from the reactive distillation column; wherein the aromatic hydroxy compound is fed to the column at a first feed point located at least one theoretical tray above the top of the catalyst bed; wherein the dialkylcarbonate is fed to the reactive distillation column at a point below the top of the catalyst bed; wherein the aromatic hydroxy compound has a water content of less than 0.5 wt% when it first contacts the top of the heterogeneous transesterification catalyst bed; wherein the reactive distillation column is operated at a pressure in the range of from 1 bara to 5 bara; wherein the temperature in the heterogeneous catalyst bed is in the range of from 100 °C to 250 °C; wherein the reactive distillation column contains internals between the top of the catalyst bed and the first feed point. a) contacting a stream comprising an aromatic hydroxy compound and water, and a stream comprising a dialkylcarbonate in a reactive distillation column containing a bed of heterogeneous transesterification catalyst, the bed having a top and a bottom; and b) withdrawing a product stream comprising the alkylaryl carbonate from the reactive distillation column;
A method for preparing a curable composition starting from the provision of an epoxy resin component comprising at least one epoxy resin and a hardener component comprising at least one amino curing agent characterized in that the process comprises the steps of (a) providing at least one ground composite material prepared by grinding a composite comprising a polymer matrix and glass fibers, (b) combining and mixing the at least one ground composite material of step (a) with the epoxy resin component or the hardener component or both, (c) mixing of the epoxy resin component and the hardener component resulting from step (b), at least one of which contains the at least one ground composite material. (a) providing at least one ground composite material prepared by grinding a composite comprising a polymer matrix and glass fibers, (b) combining and mixing the at least one ground composite material of step (a) with the epoxy resin component or the hardener component or both, (c) mixing of the epoxy resin component and the hardener component resulting from step (b), at least one of which contains the at least one ground composite material.
A liquid ejection head comprising: an ejection opening for ejecting a liquid; a passage including a pressure chamber in which an energy generation element for generating energy used to eject the liquid is disposed; an ejection opening portion that allows communication between the ejection opening and the passage; a supply passage for allowing the liquid to flow into the passage from an outside; and an outflow passage for allowing the liquid to flow out to the outside from the passage; the liquid ejection head being configured such that a differential pressure causes liquid circulation by causing a flow of liquid supplied from the supply passage to pass through the passage, the pressure chamber, and the passage 24 to the outflow passage; wherein an expression of H -0.34 × P -0.66 × W > 1.5 is satisfied when a height of the passage at an upstream side of a communication portion between the passage and the ejection opening portion in a flow direction of the liquid inside the passage is set to H, a length of the ejection opening portion in a direction in which the liquid is ejected from the ejection opening is set to P, and a length of the ejection opening portion in the flow direction of the liquid inside the passage is set to W. an ejection opening for ejecting a liquid; a passage including a pressure chamber in which an energy generation element for generating energy used to eject the liquid is disposed; an ejection opening portion that allows communication between the ejection opening and the passage; a supply passage for allowing the liquid to flow into the passage from an outside; and an outflow passage for allowing the liquid to flow out to the outside from the passage; the liquid ejection head being configured such that a differential pressure causes liquid circulation by causing a flow of liquid supplied from the supply passage to pass through the passage, the pressure chamber, and the passage 24 to the outflow passage; wherein an expression of H -0.34 × P -0.66 × W > 1.5 is satisfied when a height of the passage at an upstream side of a communication portion between the passage and the ejection opening portion in a flow direction of the liquid inside the passage is set to H, a length of the ejection opening portion in a direction in which the liquid is ejected from the ejection opening is set to P, and a length of the ejection opening portion in the flow direction of the liquid inside the passage is set to W.
Use of a copper alloy having the following composition [in percent by weight]: Sn: from 2 to 8%, Zn: from 2.5 to 13%, Pb: less than 0.25%, optionally Ni up to a maximum of 0.6%, optionally phosphorus, balance Cu, but at least 84%, and inevitable impurities, for producing moulded components, characterised in that a fine-grained structure is produced in the material by the residual melt which is present being agitated during the solidification operation and in that the production of the moulded components includes at least one thermal pressing operation. Sn: from 2 to 8%, Zn: from 2.5 to 13%, Pb: less than 0.25%,