mhurhangee/ep-ind-claims huggingface dataset:
Angular sector (38; 138) of a bladed stator of an axial turbine engine, particularly of a compressor (4; 6), the sector comprising: - an external collar in the form of a circular arc intended to be mounted on a casing of the turbine engine, - an internal collar (32; 132) in the form of a circular arc, - a row of stator blades (42; 142) extending radially and anchored in the collars in such a manner as to form a bladed box (38; 138), one box blade (42; 142) comprises an anchoring foot (50; 150) disposed in the thickness of one of the collars (30; 32; 132) in such a manner as to anchor the blade (42; 142) to said collar to make the box (38; 138) rigid; characterized in that each box blade (42; 142) comprises at least two anchoring feet (50; 150) at at least one of its radial ends, one of the two anchoring feet (50; 150) preferably being situated on the front side of the blade (42; 142) at one of the two axial ends of the blade, and the other of the two anchoring feet (50; 150) being situated on the back side of the blade at the other of the two axial ends of the blade (42; 142). - an external collar in the form of a circular arc intended to be mounted on a casing of the turbine engine, - an internal collar (32; 132) in the form of a circular arc, - a row of stator blades (42; 142) extending radially and anchored in the collars in such a manner as to form a bladed box (38; 138), one box blade (42; 142) comprises an anchoring foot (50; 150) disposed in the thickness of one of the collars (30; 32; 132) in such a manner as to anchor the blade (42; 142) to said collar to make the box (38; 138) rigid; characterized in that each box blade (42; 142) comprises at least two anchoring feet (50; 150) at at least one of its radial ends, one of the two anchoring feet (50; 150) preferably being situated on the front side of the blade (42; 142) at one of the two axial ends of the blade, and the other of the two anchoring feet (50; 150) being situated on the back side of the blade at the other of the two axial ends of the blade (42; 142).
Method of controlling a load sensing hydraulic system with a bypass valve device according to claim 4, which is controlled by a pump pressure and which when the hydraulic system is in operation diverts a pump flow of hydraulic fluid to the tank port (H, 20) and which is pre-stressed towards a closed position and by means of the pump pressure is loaded towards an open position against the action of the pre-stress, wherein the pre-stress is initially limited to a first pressure that is determined by the first pre-stress force, wherein the pre-stress is increased to a second, substantially higher pressure upon activation of the hydraulic system by applying the hydraulic, constant second pre-stress force, that is added to the first pre-stress force and is substantially greater than this.
A display device (1000, 1001, 1002, 1003, 1004, 1005, 1006, 1007, 1008) comprising: a display panel; a mold frame (200, 205, 209) which supports the display panel, wherein the mold frame (200, 205, 209) comprises: a frame body (250, 251, 252, 253, 255, 259) comprising a recessed portion (250t, 251t, 252t, 253t), the recessed portion being a trench having two facing inner walls and a base surface; and a first light-transmit member (210, 211, 212, 213, 214, 215, 216, 217, 218, 219) extending in a first direction and at least partially inserted into the recessed portion (250t, 251t, 252t, 253t); and a joining member which couples the display panel and the mold frame (200, 205, 209) to each other, wherein the first light-transmit member (210, 211, 212, 213, 214, 215, 216, 217, 218, 219) and the joining member at least partially overlap each other, wherein the joining member is made of a photo-curable material, and wherein the first light-transmit member (210, 211, 212, 213, 214, 215, 216, 217, 218, 219) is in optical contact with the joining member and at least a portion of the first light-transmit member (210, 211, 212, 213, 214, 215, 216, 217, 218, 219) is exposed to the outside of the device after the mold frame (200, 205, 209) and the display panel have been joined. a display panel; a mold frame (200, 205, 209) which supports the display panel, wherein the mold frame (200, 205, 209) comprises: a frame body (250, 251, 252, 253, 255, 259) comprising a recessed portion (250t, 251t, 252t, 253t), the recessed portion being a trench having two facing inner walls and a base surface; and a first light-transmit member (210, 211, 212, 213, 214, 215, 216, 217, 218, 219) extending in a first direction and at least partially inserted into the recessed portion (250t, 251t, 252t, 253t); and a frame body (250, 251, 252, 253, 255, 259) comprising a recessed portion (250t, 251t, 252t, 253t), the recessed portion being a trench having two facing inner walls and a base surface; and a first light-transmit member (210, 211, 212, 213, 214, 215, 216, 217, 218, 219) extending in a first direction and at least partially inserted into the recessed portion (250t, 251t, 252t, 253t); and a joining member which couples the display panel and the mold frame (200, 205, 209) to each other, wherein the first light-transmit member (210, 211, 212, 213, 214, 215, 216, 217, 218, 219) and the joining member at least partially overlap each other, wherein the joining member is made of a photo-curable material, and wherein the first light-transmit member (210, 211, 212, 213, 214, 215, 216, 217, 218, 219) is in optical contact with the joining member and at least a portion of the first light-transmit member (210, 211, 212, 213, 214, 215, 216, 217, 218, 219) is exposed to the outside of the device after the mold frame (200, 205, 209) and the display panel have been joined.
A laser apparatus for creating an incision in tissue of a human eye, comprising: - a patient adapter configured to interface with the cornea of the human eye; - a laser source configured to generate pulsed laser radiation having an ultrashort pulse duration; - a selector configured to select groups of pulses from the laser radiation, each pulse group comprising a plurality of pulses at a pulse repetition rate of at least 100 MHz, wherein the pulse groups have a group repetition rate of no more than about 1 MHz; - a scanner device configured to scan a focal point of the pulsed laser radiation; - a controller configured to control the scanner device based on a control program including instructions that, when executed by the controller, bring about the creation of a LIOB-based photodisruption in the tissue of the human eye for each pulse group, characterized in that the laser source includes a semiconductor laser, which is one of a VECSEL type, VCSEL type and MIXSEL type, wherein a pulse energy of the pulsed laser radiation generated by the semiconductor laser is in the range of 1 to 100 picojoules, and wherein the laser apparatus further comprises: - a first amplifier configured to amplify the energy of the pulses of the pulsed laser radiation to the range of nanojoules prior to the selection of the pulse groups, and - a second amplifier configured to amplify the pulses selected by the selector by a factor of at least 10, 20, 50 or 100. - a patient adapter configured to interface with the cornea of the human eye; - a laser source configured to generate pulsed laser radiation having an ultrashort pulse duration; - a selector configured to select groups of pulses from the laser radiation, each pulse group comprising a plurality of pulses at a pulse repetition rate of at least 100 MHz, wherein the pulse groups have a group repetition rate of no more than about 1 MHz; - a scanner device configured to scan a focal point of the pulsed laser radiation; - a controller configured to control the scanner device based on a control program including instructions that, when executed by the controller, bring about the creation of a LIOB-based photodisruption in the tissue of the human eye for each pulse group, - a first amplifier configured to amplify the energy of the pulses of the pulsed laser radiation to the range of nanojoules prior to the selection of the pulse groups, and - a second amplifier configured to amplify the pulses selected by the selector by a factor of at least 10, 20, 50 or 100.
Actuating assembly for actuating a push pin of a door lock, in particular of a cold storage room door lock, having a fitting part which can be arranged on a door, an actuating means which can be moved relative to the fitting part, a fixing element (3. 3) for axial fixing of the actuating means to the fitting part, and a counter-fixing element (4.3), in particular a four-membered counter-fixing element, for positive-fit fixing to the fixing element (3.3), the fixing element (3.3) being arranged on the actuating means, characterized in in that the fixing element (3.3) engages around the counter-fixing element (4.3) in a radially outwardly located manner.
A method, comprising: obtaining projection data from a scan of a moving structure of interest, wherein the projection data corresponds to an angular range; reconstructing the projection data, generating first image data; identifying a sub-set of the projection data, the sub-set of the projection data being identified by an angle setting identifying an angle corresponding to the sub-set of the projection data and by a location setting which identifies a point in time of the scan at which the angle of the angle setting is centered about; reconstructing the identified sub-set of the projection data, generating second image data; identifying a region in which the moving structure of interest is located based on the first image data; and identifying a location of the moving structure of interest in the identified region based on the second image data. obtaining projection data from a scan of a moving structure of interest, wherein the projection data corresponds to an angular range; reconstructing the projection data, generating first image data; identifying a sub-set of the projection data, the sub-set of the projection data being identified by an angle setting identifying an angle corresponding to the sub-set of the projection data and by a location setting which identifies a point in time of the scan at which the angle of the angle setting is centered about; reconstructing the identified sub-set of the projection data, generating second image data; identifying a region in which the moving structure of interest is located based on the first image data; and identifying a location of the moving structure of interest in the identified region based on the second image data.
An envelope-stuffing machine for stuffing piles of sheet articles, comprising: a first conveyor for moving piles of sheet articles in a first advancement direction; a second conveyor arranged downstream of the first conveyor with respect to the first advancement direction, the second conveyor being angularly arranged with respect to the first conveyor; a third conveyor aligned with the first conveyor; a first envelope-stuffing unit for stuffing the piles of sheet articles a second envelope-stuffing unit for stuffing the piles of sheet articles, characterized in that: the third conveyor is arranged downstream of the first conveyor with respect to the first advancement direction, the third conveyor being extensible in a second advancement direction opposite the first advancement direction, such as to assume an operating configuration in which it passes above the second conveyor and defines, with the first conveyor, a first conveying pathway and being retractable in a same direction as the first advancing direction in order to assume an inactive configuration which enables the first conveyor and the second conveyor to define a second conveying pathway; the first envelope-stuffing unit is positionable along the first conveying pathway; the second envelope-stuffing unit is positionable along the second conveying pathway. a first conveyor for moving piles of sheet articles in a first advancement direction; a second conveyor arranged downstream of the first conveyor with respect to the first advancement direction, the second conveyor being angularly arranged with respect to the first conveyor; a third conveyor aligned with the first conveyor; a first envelope-stuffing unit for stuffing the piles of sheet articles a second envelope-stuffing unit for stuffing the piles of sheet articles, the third conveyor is arranged downstream of the first conveyor with respect to the first advancement direction, the third conveyor being extensible in a second advancement direction opposite the first advancement direction, such as to assume an operating configuration in which it passes above the second conveyor and defines, with the first conveyor, a first conveying pathway and being retractable in a same direction as the first advancing direction in order to assume an inactive configuration which enables the first conveyor and the second conveyor to define a second conveying pathway; the first envelope-stuffing unit is positionable along the first conveying pathway; the second envelope-stuffing unit is positionable along the second conveying pathway.
A method for making puffed snacks comprising: introducing into an extruder ingredients comprising by weight on a dry basis: 15% to 25% peanut flour; 35% to 50% rice flour; 25% to 35% ground corn product; and 1% to 3% oat fiber forming an extrudate by extruding said ingredients through said extruder, wherein said extruder further comprises: at least one die exit; an orifice disposed in each said die exit, said orifice-comprising: a cross-sectional perimeter defined by two approximately parallel linear portions interposed between two diametric portions; a width defining the distance between said linear pouions; and a land length between 3,2 mm and 12,7 mm (1/8 inch and 1/2 inch) and operating said extruder at a die pressure between 3.4 an 13.8 MPa (500 and 2000 pounds per square inch) and at an extrudate temperature between 160 °C to 210 °C (320°F to 410°F); and cutting said extrudate to produce said puffed snacks. introducing into an extruder ingredients comprising by weight on a dry basis: 15% to 25% peanut flour; 35% to 50% rice flour; 25% to 35% ground corn product; and 1% to 3% oat fiber 15% to 25% peanut flour; 35% to 50% rice flour; 25% to 35% ground corn product; and 1% to 3% oat fiber forming an extrudate by extruding said ingredients through said extruder, wherein said extruder further comprises: at least one die exit; an orifice disposed in each said die exit, said orifice-comprising: a cross-sectional perimeter defined by two approximately parallel linear portions interposed between two diametric portions; a width defining the distance between said linear pouions; and a land length between 3,2 mm and 12,7 mm (1/8 inch and 1/2 inch) and at least one die exit; an orifice disposed in each said die exit, said orifice-comprising: a cross-sectional perimeter defined by two approximately parallel linear portions interposed between two diametric portions; a width defining the distance between said linear pouions; and a land length between 3,2 mm and 12,7 mm (1/8 inch and 1/2 inch) and operating said extruder at a die pressure between 3.4 an 13.8 MPa (500 and 2000 pounds per square inch) and at an extrudate temperature between 160 °C to 210 °C (320°F to 410°F); and cutting said extrudate to produce said puffed snacks.
Polypropylene composition, comprising a) a matrix comprising a random propylene copolymer (R-PP) and a propylene homopolymer (H-PP) with a melt flow rate MFR (230 °C) measured according to ISO 1133 in the range of 0.1 to 15.0 g/10 min, and b) an elastomeric propylene copolymer dispersed in said matrix, wherein said polypropylene composition has i) an intrinsic viscosity determined according to DIN ISO 1628/1 (in Decalin at 135 °C) of the xylene soluble fraction of at least 1.8 dl/g, ii) a comonomer content of the xylene soluble fraction of at least 30.0 mol-%, and iii) a melt flow rate MFR 2 (230 °C) measured according to ISO 1133 of at least 2.0 g/10 min. a) a matrix comprising a random propylene copolymer (R-PP) and a propylene homopolymer (H-PP) with a melt flow rate MFR (230 °C) measured according to ISO 1133 in the range of 0.1 to 15.0 g/10 min, and b) an elastomeric propylene copolymer dispersed in said matrix, i) an intrinsic viscosity determined according to DIN ISO 1628/1 (in Decalin at 135 °C) of the xylene soluble fraction of at least 1.8 dl/g, ii) a comonomer content of the xylene soluble fraction of at least 30.0 mol-%, and iii) a melt flow rate MFR 2 (230 °C) measured according to ISO 1133 of at least 2.0 g/10 min.
A method of analyzing a sample fluid containing organic microobjects, the method comprising the steps of: - up-concentrating the microobjects by removing, in a total time T 1, a volume V 1 of the sample fluid from the microobjects using a first filter for retaining the microobj ects; - immersing the retained microobjects in a transfer fluid; or leaving the retained microobjects in a remaining portion of the sample fluid, the remaining portion of the sample fluid then providing the transfer fluid; - filtering, in a total time T 3, a volume V 3 of the transfer fluid by a second filter, thereby accumulating the retained microobjects on the second filter, wherein the first filter has a larger area than the second filter, and wherein the throughput V 1 / T 1 of the step of up-concentrating is greater than the throughput V 3 / T 3 of the step of filtering; the method being characterized in that the first filter comprises a dye for staining the retained microobjects by releasing the dye into the sample fluid or into the transfer fluid, and in comprising a step of generating an image of the stained microobjects accumulated on the second filter. - up-concentrating the microobjects by removing, in a total time T 1, a volume V 1 of the sample fluid from the microobjects using a first filter for retaining the microobj ects; - immersing the retained microobjects in a transfer fluid; or leaving the retained microobjects in a remaining portion of the sample fluid, the remaining portion of the sample fluid then providing the transfer fluid; - filtering, in a total time T 3, a volume V 3 of the transfer fluid by a second filter, thereby accumulating the retained microobjects on the second filter, wherein the first filter has a larger area than the second filter, and wherein the throughput V 1 / T 1 of the step of up-concentrating is greater than the throughput V 3 / T 3 of the step of filtering; the method being characterized in that the first filter comprises a dye for staining the retained microobjects by releasing the dye into the sample fluid or into the transfer fluid, and in comprising a step of generating an image of the stained microobjects accumulated on the second filter.
A method performed by a network node configured for making automatic predictions in a telecommunication network, the method comprising: obtaining a first value of a first key performance indicator, KPI, for a first Network Element, NE, (2; 3) in the telecommunication network; obtaining a second value of a second KPI for a communication route (5; 6) between said first NE and a second NE (3; 4); and predicting, automatically and based on the obtained first and second values, that an alarm will be triggered at the second NE (3; 4). obtaining a first value of a first key performance indicator, KPI, for a first Network Element, NE, (2; 3) in the telecommunication network; obtaining a second value of a second KPI for a communication route (5; 6) between said first NE and a second NE (3; 4); and predicting, automatically and based on the obtained first and second values, that an alarm will be triggered at the second NE (3; 4).
A hose roller pump comprising a stator, a rotor and a rotor drive, wherein the rotor includes hose rollers whose position is variable in the radial direction via an adjustment device having an adjustment element, characterized in that a brake device is provided which inhibits the movement of the adjustment element such that the adjustment element can be moved with respect to the rotor by braking the adjustment element and by rotating the rotor to vary the radial position of the hose rollers.
Detection method for the detection of infrasound at a measurement site, wherein a container is exposed to a remote infrasound source, the container being partially filled in a way with a mist which is embedded in a carrier medium such that a mist surface is present, so that the resulting pressure change over time results in the formation of a directed front at the mist surface, characterized in that the mist surface is optically detected and manually, semi-automatically or automatically evaluated.
A use of an exhaust gas purification underfloor catalyst comprising a catalyst layer having a lower layer and an upper layer for purifying an exhaust gas, wherein the catalyst layer is a coat layer on a substrate, the lower layer contains alumina and CeO 2, the noble metal content of the lower layer is 0.5 mass% or less with respect to the mass of the lower layer, the upper layer contains Rh, alumina and CeO 2, the content of noble metals other than Rh is 1 mol% or less with respect to the total noble metals in the upper layer, the total amount of CeO 2 in the lower layer and upper layer is 14 g/L to 30 g/L, the amount of CeO 2 in the upper layer is 7 g/L to 25 g/L, and the amount of CeO 2 in the lower layer is 20 % or more of the amount of CeO 2 in the upper layer, the coat length of the upper layer is 70 % or more of the substrate length from the front end in the direction of gas flow, the coat length of the lower layer is 50 % to 85 % of the substrate length from the back end with respect to the direction of gas flow, the catalyst has a region where the upper layer is directly coated on the substrate in a range of 15 % to 50 % of the substrate length, and the catalyst is used such that the region where the upper layer is directly coated on the substrate is placed to the upstream side of gas flow. the catalyst layer is a coat layer on a substrate, the lower layer contains alumina and CeO 2, the noble metal content of the lower layer is 0.5 mass% or less with respect to the mass of the lower layer, the upper layer contains Rh, alumina and CeO 2, the content of noble metals other than Rh is 1 mol% or less with respect to the total noble metals in the upper layer, the total amount of CeO 2 in the lower layer and upper layer is 14 g/L to 30 g/L, the amount of CeO 2 in the upper layer is 7 g/L to 25 g/L, and the amount of CeO 2 in the lower layer is 20 % or more of the amount of CeO 2 in the upper layer, the coat length of the upper layer is 70 % or more of the substrate length from the front end in the direction of gas flow, the coat length of the lower layer is 50 % to 85 % of the substrate length from the back end with respect to the direction of gas flow, the catalyst has a region where the upper layer is directly coated on the substrate in a range of 15 % to 50 % of the substrate length, and the catalyst is used such that the region where the upper layer is directly coated on the substrate is placed to the upstream side of gas flow.