mhurhangee/ep-ind-claims huggingface dataset:
A plasticizing unit comprising: a heating cylinder; a screw that is received rotatably inside the heating cylinder; a resin supply hole and a fiber supply hole that are opened in the heating cylinder; and a fiber supply device that supplies a fiber material into the heating cylinder through the fiber supply hole; wherein: the fiber supply device includes at least one reel on which a long fiber material is wound, a cutting section by which the long fiber material pulled out from the reel is cut off into a prescribed length, and a pressure-feeding section by which fiber material pieces each cut in the prescribed length by the cutting section are pressed into the heating cylinder through the fiber supply hole; the pressure-feeding section has a pressing cylinder that is attached to the heating cylinder so that one end of the pressing cylinder can communicate with the fiber supply hole, a pressing piston that is received slidably inside the pressing cylinder, a fiber supply pipe through which a head chamber of the pressing cylinder and the cutting section can communicate with each other, characterized in that the plasticizing unit comprises a vacuum device, that is coupled to an air exhaust pipe of a rod chamber of the pressing cylinder, for creating an air current through the rod chamber of the pressing cylinder, a gap between an inner surface of the pressing cylinder and an outer surface of the pressing piston and a head chamber of the pressing cylinder, which air current sucks the fiber material pieces staying in the cutting section and inside the fiber supply pipe into the head chamber of the pressing cylinder, and in that the gap is small such that the fiber material pieces cannot pass through the gap easily. the fiber supply device includes at least one reel on which a long fiber material is wound, a cutting section by which the long fiber material pulled out from the reel is cut off into a prescribed length, and a pressure-feeding section by which fiber material pieces each cut in the prescribed length by the cutting section are pressed into the heating cylinder through the fiber supply hole; the pressure-feeding section has a pressing cylinder that is attached to the heating cylinder so that one end of the pressing cylinder can communicate with the fiber supply hole, a pressing piston that is received slidably inside the pressing cylinder, a fiber supply pipe through which a head chamber of the pressing cylinder and the cutting section can communicate with each other, characterized in that the plasticizing unit comprises a vacuum device, that is coupled to an air exhaust pipe of a rod chamber of the pressing cylinder, for creating an air current through the rod chamber of the pressing cylinder, a gap between an inner surface of the pressing cylinder and an outer surface of the pressing piston and a head chamber of the pressing cylinder, which air current sucks the fiber material pieces staying in the cutting section and inside the fiber supply pipe into the head chamber of the pressing cylinder, and in that the gap is small such that the fiber material pieces cannot pass through the gap easily.
Aircraft seat device, with at least one mounting unit (12a; 12b; 12c), with at least one backrest (24a; 24b; 24c; 24d) that is coupled with the mounting unit (12a; 12b; 12c), with at least one seat bottom (28a; 28b; 28c; 28d) that is coupled with the mounting unit (12a; 12b; 12c) and/or with the backrest (24a; 24b; 24c; 24d), and with at least one kinematics module (34a; 34b), which is configured to adjust the backrest (24a; 24b; 24c; 24d) between at least a normal, substantially upright sitting position and a comfort position, the kinematics module (34a; 34b) being configured, in at least one operation state, to adjust the backrest (24a; 24b; 24c; 24d) into a further, special upright position, which is different from the upright sitting position and in which the backrest (24a; 24b; 24c; 24d) is at least in a subregion adjusted frontwards in comparison to the normal upright sitting position, characterised in that the kinematics module (34a; 34b; 34c; 34d; 34e) is configured, in a non-use operation state, to adjust the backrest (24a; 24b; 24c; 24d) automatically into the special upright position. with at least one mounting unit (12a; 12b; 12c), with at least one backrest (24a; 24b; 24c; 24d) that is coupled with the mounting unit (12a; 12b; 12c), with at least one seat bottom (28a; 28b; 28c; 28d) that is coupled with the mounting unit (12a; 12b; 12c) and/or with the backrest (24a; 24b; 24c; 24d), and with at least one kinematics module (34a; 34b), which is configured to adjust the backrest (24a; 24b; 24c; 24d) between at least a normal, substantially upright sitting position and a comfort position, the kinematics module (34a; 34b) being configured, in at least one operation state, to adjust the backrest (24a; 24b; 24c; 24d) into a further, special upright position, which is different from the upright sitting position and in which the backrest (24a; 24b; 24c; 24d) is at least in a subregion adjusted frontwards in comparison to the normal upright sitting position, characterised in that the kinematics module (34a; 34b; 34c; 34d; 34e) is configured, in a non-use operation state, to adjust the backrest (24a; 24b; 24c; 24d) automatically into the special upright position.
A power conversion method, comprising: charging a plurality of energy storage devices of a power converter from an input power source; wherein the power converter comprises at least one branch including a first arm connected between an AC terminal and a first DC rail and a second arm connected between the AC terminal and a second DC rail; and sequentially coupling and decoupling energy storage devices of the plurality of energy storage devices to an output, wherein the plurality of energy storage devices are grouped into sets of at least two energy storage devices, and a control unit is arranged to control charging of the energy storage devices within each set to a substantially equal potential, and the energy storage devices in each set are charged to a significantly different potential from all other sets in an arm of the converter. charging a plurality of energy storage devices of a power converter from an input power source; wherein the power converter comprises at least one branch including a first arm connected between an AC terminal and a first DC rail and a second arm connected between the AC terminal and a second DC rail; and sequentially coupling and decoupling energy storage devices of the plurality of energy storage devices to an output, wherein the plurality of energy storage devices are grouped into sets of at least two energy storage devices, and a control unit is arranged to control charging of the energy storage devices within each set to a substantially equal potential, and the energy storage devices in each set are charged to a significantly different potential from all other sets in an arm of the converter.
Method for shaping hair fibres comprising the following stages: (i) application to the hair fibres of a reducing composition comprising one or more cationic polymers, the ratio of the concentration by weight of the reducing agent to the concentration by weight of the cationic polymer being between 0.1 and 10, this application being followed by a rinsing operation, (ii) application of a care composition, preferably a leave-in care composition, comprising one or more aminated silicones, (iii) raising the temperature of the hair fibres, using a heating means, to a temperature of between 50 and 280°C, the raising of the temperature being carried out before or after the optional rinsing of the hair fibres, stage (ii) being carried out after stage (i) and optionally before stage (i), the method not employing any oxidizing composition. (i) application to the hair fibres of a reducing composition comprising one or more cationic polymers, the ratio of the concentration by weight of the reducing agent to the concentration by weight of the cationic polymer being between 0.1 and 10, this application being followed by a rinsing operation, (ii) application of a care composition, preferably a leave-in care composition, comprising one or more aminated silicones, (iii) raising the temperature of the hair fibres, using a heating means, to a temperature of between 50 and 280°C, the raising of the temperature being carried out before or after the optional rinsing of the hair fibres, stage (ii) being carried out after stage (i) and optionally before stage (i), the method not employing any oxidizing composition. stage (ii) being carried out after stage (i) and optionally before stage (i), the method not employing any oxidizing composition.
Cable processing device comprising at least one processing station for processing cable ends of cables (3, 4), a cable conveying device running along a machine longitudinal axis for transporting a cable (3, 4) to at least one processing station in the direction of the machine longitudinal axis, and comprising a cable changer, arranged in the region of the cable conveying device, for the selective supply of cables (3, 4) to at least one processing station for processing the cable ends, the cable changer having at least two guide units (7, 8) for guiding and holding one cable each, the guide units (7, 8) being movable between an inoperative position and an active position, the guide unit (7, 8) being positioned, in the inoperative position, outside the cable conveying device and spaced apart from the machine longitudinal axis and the guide unit (7, 8) being positioned, in the active position, coaxially with respect to the machine longitudinal axis in order to produce an operative connection to the cable conveying device, characterized in that the at least two guide units (7, 8) are movable independently of each other from the inoperative position into the active position, the cable changer being designed in such a manner that, when one of the guide units (7, 8) is moved from the operative position into the active position, the other guide unit(s) (7, 8) remain(s) positionally fixed in the inoperative position.
A drug delivery ocular implant, comprising an outer shell; a crimp cap configured to be joined to the outer shell at one end to form a lumen, the lumen configured to contain a drug, the crimp cap having at least one region of drug release; and a permeable or semi-permeable material covering the at least one region of drug release, the permeable or semi-permeable material being permeable or semi-permeable to the drug; characterised in that the crimp cap comprises regions that are compressible configured to secure the crimp cap to the outer shell. an outer shell; a crimp cap configured to be joined to the outer shell at one end to form a lumen, the lumen configured to contain a drug, the crimp cap having at least one region of drug release; and a permeable or semi-permeable material covering the at least one region of drug release, the permeable or semi-permeable material being permeable or semi-permeable to the drug; characterised in that the crimp cap comprises regions that are compressible configured to secure the crimp cap to the outer shell.
A method of received signal processing at a wireless communication device, wherein the method comprises: demodulating a received communication signal and thereby obtaining soft bits as demodulation results; comparing the demodulation results to a characteristic pattern that is indicative of the communication signal not being ciphered for transmission; and controlling whether the demodulation results are decoded with or without deciphering, based on said step of comparing, characterized in that the characteristic pattern comprises one of: a characteristic pattern of bits that is known for a service access point identifier, SAPI, field of SACCH data blocks that convey System Information, SI; or a characteristic pattern of bits that is known from a like SACCH data block earlier received at the wireless communication device. demodulating a received communication signal and thereby obtaining soft bits as demodulation results; comparing the demodulation results to a characteristic pattern that is indicative of the communication signal not being ciphered for transmission; and controlling whether the demodulation results are decoded with or without deciphering, based on said step of comparing, characterized in that the characteristic pattern comprises one of: a characteristic pattern of bits that is known for a service access point identifier, SAPI, field of SACCH data blocks that convey System Information, SI; or a characteristic pattern of bits that is known from a like SACCH data block earlier received at the wireless communication device. a characteristic pattern of bits that is known for a service access point identifier, SAPI, field of SACCH data blocks that convey System Information, SI; or a characteristic pattern of bits that is known from a like SACCH data block earlier received at the wireless communication device.
A reactor for nanoparticle production, comprising: a main chamber including a first nozzle to which raw material gas is supplied; a lens housing connected to the main chamber in a fluidly movable manner and including a second nozzle for supplying flushing gas therein; a lens mounted on the lens housing; a light source for irradiation of a laser for passing through the lens to reach the raw material gas in the main chamber; and a hood for discharging nanoparticles generated in the main chamber, wherein the lens housing is provided so that a cross-sectional area of at least a part of a region decreases along the direction facing the main chamber, characterised in that the lens housing comprises a first region that the cross-sectional area remains constant along the direction facing the main chamber, and a second region extending from the first region to the main chamber side and having a reduced cross-sectional area, the first region and the second region are provided so that the central axes are coaxially positioned, the lens housing further comprises a third region which extends from the second region and that the central axis is not positioned coaxially with the second region, and the lens housing is disposed so that the central axis of the first region is orthogonal to the central axis of the first nozzle, and the third region is inclined downward to the first nozzle side with respect to the first region. a main chamber including a first nozzle to which raw material gas is supplied; a lens housing connected to the main chamber in a fluidly movable manner and including a second nozzle for supplying flushing gas therein; a lens mounted on the lens housing; a light source for irradiation of a laser for passing through the lens to reach the raw material gas in the main chamber; and a hood for discharging nanoparticles generated in the main chamber, wherein the lens housing is provided so that a cross-sectional area of at least a part of a region decreases along the direction facing the main chamber, characterised in that the lens housing comprises a first region that the cross-sectional area remains constant along the direction facing the main chamber, and a second region extending from the first region to the main chamber side and having a reduced cross-sectional area, the first region and the second region are provided so that the central axes are coaxially positioned, the lens housing further comprises a third region which extends from the second region and that the central axis is not positioned coaxially with the second region, and the lens housing is disposed so that the central axis of the first region is orthogonal to the central axis of the first nozzle, and the third region is inclined downward to the first nozzle side with respect to the first region.
An improved process for minimizing attrition of catalyst particles entrained in a combined flow of such particles and an entraining gas in a catalyst recovery means during separation of such particles from the entraining gas, which process comprises causing the combined flow to contact a high velocity separation means at a gas flow velocity of 16.8 meters per second to 25.9 meters per second and thereby remove from said combined flow at least 99.8 percent of the catalyst particles, wherein the improvement comprises: subjecting the combined flow, having an axis of flow direction, to a pre-treatment step that precedes contact of the combined flow with the high velocity separation means at the high gas flow velocity of from 16.8 meters per second to 25.9 meters per second, the pre-treatment step occurring at a lower gas flow velocity within a range of from 7.6 meters per second to 15.2 meters per second in combination with a directional change away from the combined gas flow, using a combined flow deflector, which directional change is at least 90 degrees from the axis of flow direction and, which pre-treatment step combination of velocity and direction change causes removal from the combined flow greater than 80 percent of the catalyst particles such that less than 20 percent of the catalyst particles contact the high velocity separation means, the improved process providing a total catalyst attrition rate calculated in accord with the correlation r = Ku 2 / μ, where r is attrition rate (mass of catalyst attrited per hour per mass of catalyst impacted per hour), K is a catalyst specific attrition rate constant, u is the impact velocity (meters per second), and μ is solids-to-gas loading ratio (mass of catalyst to mass of gas), that is at least fifteen percent less than the total catalyst attrition rate without the pre-treatment step; and wherein the combined flow deflector is a disk.
An apparatus for the short-circuit protection of a three-phase load in a three-phase system, said apparatus comprising an input for connection of the apparatus (2, 3, 4) to a three-phase network, an output for connection of the three-phase load to the apparatus (2, 3, 4), a means for producing an auxiliary short circuit in the three-phase network by ignition of the means, a means for identifying a short circuit at the three-phase load, and a means for generating an ignition pulse upon identification of the short circuit, wherein the means for producing the auxiliary short circuit and the means for identifying the short circuit are provided in the current path between the input and the output, the means for producing the auxiliary short circuit is ignitable by the ignition pulse, the means for identifying the short circuit comprises a current sensor and a means for identifying a switching threshold, the current sensor is arranged in the current path of a phase of the three-phase network, the means for identifying the switching threshold cooperates with the current sensor, the means for identifying the switching threshold is formed in such a way that, if a predefined switching threshold is exceeded, the identification of a short circuit is signalled to the means for generating the ignition pulse, and means for identifying the switching threshold comprises a galvanic isolation device.
A non-weft, unidirectional fabric comprising: a plurality of substantially parallel reinforcement glass fiber bundles, said reinforcement glass fiber bundles having a first surface and an opposing second surface, each of the first surface and opposing second surface having a width; and a non-woven veil selectively bonded to at least one of said first and second surface by at least one of localized heating of the non-woven veil or localized application of an adhesive material, wherein the glass fiber bundles are formed from a plurality of glass filaments, having a diameter of 5 μm to 40 μm, coated with a sizing composition including a polymeric binder, wherein said polymeric binder is capable of bonding said glass filaments to each other and to said non-woven veil, wherein the substantially parallel reinforcement glass fiber bundles are spaced apart such that flow channels are formed between the individual fiber bundles. a plurality of substantially parallel reinforcement glass fiber bundles, said reinforcement glass fiber bundles having a first surface and an opposing second surface, each of the first surface and opposing second surface having a width; and a non-woven veil selectively bonded to at least one of said first and second surface by at least one of localized heating of the non-woven veil or localized application of an adhesive material, wherein the glass fiber bundles are formed from a plurality of glass filaments, having a diameter of 5 μm to 40 μm, coated with a sizing composition including a polymeric binder, wherein said polymeric binder is capable of bonding said glass filaments to each other and to said non-woven veil, wherein the substantially parallel reinforcement glass fiber bundles are spaced apart such that flow channels are formed between the individual fiber bundles.
A method for attracting a gaze of a viewer (202; 230; 250) of a display device (14; 18; 210; 242; 254; 604), the method comprising: controlling the display device to display a target object (270; 302; 434; 512); using gaze tracking data from a gaze tracking system (54; 608) to monitor a gaze location (282; 282'; 282"; 308; 308'; 308"; 450; 510; 524; 530) of the viewer; controlling the display device to display a guide element (264; 306; 504) moving along a computed dynamic path (274; 310; 430; 506) that traverses within a predetermined region (278; 314; 508) adjacent to the gaze location of the viewer and leads to the target object; using the gaze tracking data to determine if the gaze location of the viewer is within a predetermined divergence threshold of the guide element; if the gaze location of the viewer is within the predetermined divergence threshold of the guide element, then controlling the display device to continue displaying the guide element moving along the computed dynamic path (274; 310; 430; 506) to the target object; and if the gaze location of the viewer diverts from the guide element by at least the predetermined divergence threshold, then controlling the display device to discontinue displaying the guide element moving along the computed dynamic path (274; 310; 430; 506) to the target object. controlling the display device to display a target object (270; 302; 434; 512); using gaze tracking data from a gaze tracking system (54; 608) to monitor a gaze location (282; 282'; 282"; 308; 308'; 308"; 450; 510; 524; 530) of the viewer; controlling the display device to display a guide element (264; 306; 504) moving along a computed dynamic path (274; 310; 430; 506) that traverses within a predetermined region (278; 314; 508) adjacent to the gaze location of the viewer and leads to the target object; using the gaze tracking data to determine if the gaze location of the viewer is within a predetermined divergence threshold of the guide element; if the gaze location of the viewer is within the predetermined divergence threshold of the guide element, then controlling the display device to continue displaying the guide element moving along the computed dynamic path (274; 310; 430; 506) to the target object; and if the gaze location of the viewer diverts from the guide element by at least the predetermined divergence threshold, then controlling the display device to discontinue displaying the guide element moving along the computed dynamic path (274; 310; 430; 506) to the target object.