mhurhangee/ep-ind-claims huggingface dataset:
Packaging system (140, 240, 340, 440, 540), wherein the packaging system (140, 240, 340, 440, 540) comprises the following: - a wiper blade for a windscreen wiper system; - and outer packaging (145, 150) for receiving the wiper blade; - a plurality of different adapters, in each case for fastening the wiper blade to a wiper arm of the windscreen wiper system; and - a holding device for fixing the adapters in the outer packaging (145, 150), wherein - the holding device fixes the adapters to the wiper blade in a side which lies opposite the wiper lip of the wiper blade. - a wiper blade for a windscreen wiper system; - and outer packaging (145, 150) for receiving the wiper blade; - a plurality of different adapters, in each case for fastening the wiper blade to a wiper arm of the windscreen wiper system; and - a holding device for fixing the adapters in the outer packaging (145, 150), wherein - the holding device fixes the adapters to the wiper blade in a side which lies opposite the wiper lip of the wiper blade.
Glass sliding door with a running rail and with a door leaf guided by means of at least one carriage, the carriage having at least one roller on one side which is guided on a track surface of a track of the running rail, the running rail being adapted to be fastened on a wall by means of a wall connector, the wall connector having a fastening plate, wherein the wall connector has a plurality of protrusions (66, 68) which are formed as plate parts and engage into different groves of the running rail, one of the plurality of protrusions (66, 68) engaging into a guiding groove of the running rail and/or into a groove adjoining the track of the running rail, which protrusion can be fastened to the running rail.
Armour comprising an array of tiles or pellets (9;14) assembled together in a spaced relationship with resilient material (8;13) therebetween and confined between at least a pair of sheets (2"2';17,17',) that provide structural rigidity to the assembly, characterised in that the tiles or pellets (9:14) are confined by a further pair of sheets (11, 11'; 16, 16') whereas boundaries between adjacent tiles or pellets are confined by only two sheets (2, 2'; 17, 17').
A rotary hammer comprising: a hammer housing; a motor having an armature shaft; a hammer spindle rotatably mounted about a longitudinal axis in the hammer housing; a tool holder provided at a front end of the hammer housing and being rotatingly driven by the motor about the longitudinal axis of the hammer spindle; a hammer mechanism provided in the hammer housing for generating impacts acting on the rear end of a bit inserted into the tool holder, the hammer mechanism having a drive shaft able to be selectively coupled with the armature shaft; and a switching arrangement for switching the rotary hammer between at least a pure drilling mode, a hammer drilling mode and a pure hammering mode, having a switching element rotatable from the outside of the hammer housing about a rotational axis, the switching arrangement having a cam portion for switching the rotary hammer between at least two modes of operation; wherein the switching arrangement comprises a gear train (67, 69) disposed between the switching element and the cam portion; wherein the gear train comprises a first gear rigidly connected to the switching element so that rotation of the switching element results in rotation of the first gear and a second gear rigidly connected to the cam portion, characterised in that the first and second gears are arranged to mesh directly with each other, so that rotation of the first gear results in rotation of the second gear; and in that the gear ratio of the gear train (67, 69) is comprised between 0.5 and 0.9. a hammer housing; a motor having an armature shaft; a hammer spindle rotatably mounted about a longitudinal axis in the hammer housing; a tool holder provided at a front end of the hammer housing and being rotatingly driven by the motor about the longitudinal axis of the hammer spindle; a hammer mechanism provided in the hammer housing for generating impacts acting on the rear end of a bit inserted into the tool holder, the hammer mechanism having a drive shaft able to be selectively coupled with the armature shaft; and a switching arrangement for switching the rotary hammer between at least a pure drilling mode, a hammer drilling mode and a pure hammering mode, having a switching element rotatable from the outside of the hammer housing about a rotational axis, the switching arrangement having a cam portion for switching the rotary hammer between at least two modes of operation; wherein the switching arrangement comprises a gear train (67, 69) disposed between the switching element and the cam portion; wherein the gear train comprises a first gear rigidly connected to the switching element so that rotation of the switching element results in rotation of the first gear and a second gear rigidly connected to the cam portion, characterised in that the first and second gears are arranged to mesh directly with each other, so that rotation of the first gear results in rotation of the second gear; and in that the gear ratio of the gear train (67, 69) is comprised between 0.5 and 0.9.
A purification apparatus comprising a continuous reactor, the purification apparatus comprising: - a solution storage tank for storing a solution; - an sonicator for dispersing the particles contained in the solution of the solution storage tank with ultrasonic wave; - an agitator for agitating the solution stored in the solution storage tank; - a heating jacket provided outside the solution storage tank to control the internal temperature of the solution storage tank; - an air compressor; and - a reactor comprising a reaction chamber comprising an inlet through which the solution from the tank is fed in, and an inlet through which an antisolvent is fed in, thus mixing the solution and the antisolvent, and an outlet, and comprising an agitator body for stirring the mixture at high speed to continuously produce a reactant having uniform particles; characterized in that the solution is transferred from the tank to the inlet of the reaction chamber under reduced pressure using the air compressor. - a solution storage tank for storing a solution; - an sonicator for dispersing the particles contained in the solution of the solution storage tank with ultrasonic wave; - an agitator for agitating the solution stored in the solution storage tank; - a heating jacket provided outside the solution storage tank to control the internal temperature of the solution storage tank; - an air compressor; and - a reactor comprising a reaction chamber comprising an inlet through which the solution from the tank is fed in, and an inlet through which an antisolvent is fed in, thus mixing the solution and the antisolvent, and an outlet, and comprising an agitator body for stirring the mixture at high speed to continuously produce a reactant having uniform particles;
A sensor comprising an electrode, and a molecular recognition element immobilized on the electrode, wherein the molecular recognition element comprises i) a target molecule-recognizing portion and the target molecule is an antigen and the target molecule-recognizing portion is an antibody against the antigen, and ii) a direct electron transfer-type oxidoreductase, which is a glucose dehydrogenase comprising a catalytic subunit (α), cytochrome-containing subunit (β) and a regulatory subunit (γ), linked to the target molecule-recognizing portion. i) a target molecule-recognizing portion and the target molecule is an antigen and the target molecule-recognizing portion is an antibody against the antigen, and ii) a direct electron transfer-type oxidoreductase, which is a glucose dehydrogenase comprising a catalytic subunit (α), cytochrome-containing subunit (β) and a regulatory subunit (γ), linked to the target molecule-recognizing portion.
Collating apparatus (10, 30, 40, 50, 60, 80, 90), which comprises a conveying track (11, 12, 22, 23, 39) on which, in a closed circuit, a multiplicity of holding units arranged one after another in the direction of circulation to hold pre-products to be collated circulate, and on which, in at least one collating region (32, 42, 43, 83, 94, 95, 96) a plurality of feed devices (29, 32.1-32.5, 33) are arranged one after another in the direction of circulation, from which pre-products are discharged into the holding units moving past on the conveying track (11, 12, 22, 23, 39), wherein the holding units are conveyed on the conveying track (11, 12, 22, 23, 39) by means of a three-dimensionally flexible, preferably chain-like, conveying element, in that the holding units in each case have clamping means (14, 15, 16), which hold the pre-products collated in the holding units in a clamped manner, characterized in that at at least two points of the conveying track (11, 12, 22, 23, 39) there are arranged transfer devices (34, 35, 37, 38, 81, 82, 94, 95, 96) which transport collated pre-products away from the holding units for further processing, in that the conveying track comprises an upper track portion and a lower track portion, which run substantially in parallel and are connected to each other at the ends by deflection regions (22, 23) and form a closed circuit, and in that at least one collating region is provided on the upper track portion and a plurality of transfer devices (34, 35) are arranged on the lower track portion and/or in the deflection regions (22, 23) and in that a control system is provided which, in a predetermined way, controls the feed devices (29, 32.1-32.5, 33) and the transfer devices (34, 35, 37, 38, 81, 82, 91, 92, 93) such that in each case the desired different collections of products are available on the transfer devices (34, 35, 37, 38, 81, 82, 91, 92, 93).
A gas turbine engine comprising a rotor disk having blades attached thereto and an adjacent rotor disk having blades attached thereto, the disk comprising: a hub; a rim with a forward portion and an aft portion; a web extending between the hub and the rim; and characterized by a plurality of circumferentially spaced snap segments in the rim, wherein each snap segment has a radially outward facing bearing surface, a front face, and a bottom, wherein the bearing surface abuts an aft portion of said adjacent rotor disk; and a plurality of circumferentially spaced radial scallops in the rim, wherein each radial scallop of the plurality of circumferentially spaced radial scallops is positioned between two snap segments in the rim to form cooling slots between the rotor disk and the adjacent rotor disk. a hub; a rim with a forward portion and an aft portion; a web extending between the hub and the rim; and characterized by a plurality of circumferentially spaced snap segments in the rim, wherein each snap segment has a radially outward facing bearing surface, a front face, and a bottom, wherein the bearing surface abuts an aft portion of said adjacent rotor disk; and a plurality of circumferentially spaced radial scallops in the rim, wherein each radial scallop of the plurality of circumferentially spaced radial scallops is positioned between two snap segments in the rim to form cooling slots between the rotor disk and the adjacent rotor disk.
A shelter, in particular carport, comprising: load-bearing elements; beams fixed to the load-bearing elements; roofing resting on the beams; in which each beam is supported at the ends thereof by a respective load-bearing element, at least one beam being supported at one end by an articulated assembly comprising: a clevis mounting part at the end of the beam, which cooperates with a mounting support associated with the load-bearing element to form a pivot linkage, the clevis mounting part comprising a base integral with the beam and two prongs extending in the extension of the beam, the mounting support comprising two side faces, each prong being pivotally mounted on a respective side face; characterised in that a clamping means is provided which comprises a link, one end of which is anchored in the clevis mounting part and the other end, denoted clamping end, cooperates with a part (48, 48') integral with the beam. load-bearing elements; beams fixed to the load-bearing elements; roofing resting on the beams; in which each beam is supported at the ends thereof by a respective load-bearing element, at least one beam being supported at one end by an articulated assembly comprising: a clevis mounting part at the end of the beam, which cooperates with a mounting support associated with the load-bearing element to form a pivot linkage, the clevis mounting part comprising a base integral with the beam and two prongs extending in the extension of the beam, the mounting support comprising two side faces, each prong being pivotally mounted on a respective side face; characterised in that a clamping means is provided which comprises a link, one end of which is anchored in the clevis mounting part and the other end, denoted clamping end, cooperates with a part (48, 48') integral with the beam. a clevis mounting part at the end of the beam, which cooperates with a mounting support associated with the load-bearing element to form a pivot linkage, the clevis mounting part comprising a base integral with the beam and two prongs extending in the extension of the beam, the mounting support comprising two side faces, each prong being pivotally mounted on a respective side face; characterised in that a clamping means is provided which comprises a link, one end of which is anchored in the clevis mounting part and the other end, denoted clamping end, cooperates with a part (48, 48') integral with the beam.
A method for controlling an injection molding machine and a mold forming a mold cavity, the injection molding machine being controlled according to an injection cycle, the method comprising: analyzing a model of at least one of the injection molding machine, the mold, and a molten material, to determine initial values for one or more control parameters of the injection molding machine; executing a run of injection cycles at the injection molding machine, wherein during each injection cycle of the run, the injection molding machine injects the molten material into a cavity of the mold according to an injection pattern; measuring operation of the injection molding machine during a particular injection cycle of the run of injection cycles; determining one or more operational parameters exceed a threshold; and upon determining that the one or more operational parameters exceed the threshold, adjusting the one or more control parameters for subsequent injection cycles of the run of injection cycles; wherein the determination that the one or more operational parameters exceed the threshold includes combining the operational parameters to determine a metric indicative of a viscosity of the molten material and comparing the metric to the threshold. analyzing a model of at least one of the injection molding machine, the mold, and a molten material, to determine initial values for one or more control parameters of the injection molding machine; executing a run of injection cycles at the injection molding machine, wherein during each injection cycle of the run, the injection molding machine injects the molten material into a cavity of the mold according to an injection pattern; measuring operation of the injection molding machine during a particular injection cycle of the run of injection cycles; determining one or more operational parameters exceed a threshold; and upon determining that the one or more operational parameters exceed the threshold, adjusting the one or more control parameters for subsequent injection cycles of the run of injection cycles; wherein the determination that the one or more operational parameters exceed the threshold includes combining the operational parameters to determine a metric indicative of a viscosity of the molten material and comparing the metric to the threshold.
A method for operating functions of home automation, which are available in a closed room, the functions being controlled by a control device in each case and the control devices assigned to the room being connected to a common base station in a data-conducting manner in each case, a user specifying control commands for controlling the functions by means of their personal smartphone, which are transmitted via a dedicated radio connection from the smartphone to the base station and assigned by the same to the respective control device, characterized in that the dedicated radio connection is a mobile Internet connection between the smartphone of the user and the base station, which is authenticated in advance by means of an initializing data exchange between the smartphone and an infrared transceiver located in the room, wherein the initializing data exchange takes place by means of a corresponding infrared connection.
A pneumatic blocking support for blocking an optical lens on a surfacing machine, comprising: - a holding part for fixing it to a corresponding member of said surfacing machine, and - a lens-blocking part for blocking said optical lens and which comprises a body from which there project stops (150, 160) arranged to offer the optical lens a rigid footing, and a seal against which the optical lens is able to be made to bear so as to delimit with said body a reduced-pressure chamber, characterized in that said stops comprise first rods which are mounted with translational mobility with respect to said body so as to come to bear via their free ends against the optical lens, and in that return means (179, 190) are provided for returning said first rods against the optical lens. - a holding part for fixing it to a corresponding member of said surfacing machine, and - a lens-blocking part for blocking said optical lens and which comprises a body from which there project stops (150, 160) arranged to offer the optical lens a rigid footing, and a seal against which the optical lens is able to be made to bear so as to delimit with said body a reduced-pressure chamber,
A method of measuring the volume of a propellant V L enclosed at a first pressure P U within a first tank of a first volume V T, where the tank volume V T is equal to the volume of the propellant V L plus an ullage volume Vu, said method comprising the steps of: (a) enclosing a pressurization gas of a second volume Vp in a second tank at a second pressure P p, said second pressure P p being greater than said first pressure P U; (b) monitoring the absolute pressure P p of said second tank by a first absolute pressure transducer and monitoring the absolute pressure P u of said first tank by a second absolute pressure transducer; (c) opening a connection between the ullage volume V U in the first tank and a reference chamber such that the reference pressure P r in said reference chamber will remain at said first pressure P U; (d) closing the connection between the ullage volume in said first tank and said reference chamber such that the reference pressure P r will be independent of P U; (e) opening a connection between the first tank and the second tank; (f) measuring the resulting pressure difference dP U between the ullage volume and the reference chamber using a differential pressure (dP) sensor of high accuracy; (g) calculating the ullage volume Vu of said first tank in accordance with the following equation: V u = P p − P u + dP u V p dP u; and (h) subracting said ullage volume Vu from said first V T volume to determine said propellant volume V L. (a) enclosing a pressurization gas of a second volume Vp in a second tank at a second pressure P p, said second pressure P p being greater than said first pressure P U; (b) monitoring the absolute pressure P p of said second tank by a first absolute pressure transducer and monitoring the absolute pressure P u of said first tank by a second absolute pressure transducer; (c) opening a connection between the ullage volume V U in the first tank and a reference chamber such that the reference pressure P r in said reference chamber will remain at said first pressure P U; (d) closing the connection between the ullage volume in said first tank and said reference chamber such that the reference pressure P r will be independent of P U; (e) opening a connection between the first tank and the second tank; (f) measuring the resulting pressure difference dP U between the ullage volume and the reference chamber using a differential pressure (dP) sensor of high accuracy; (g) calculating the ullage volume Vu of said first tank in accordance with the following equation: V u = P p − P u + dP u V p dP u; and (h) subracting said ullage volume Vu from said first V T volume to determine said propellant volume V L.
Process for preparing a polymer crosslinked by at least one structure selected from the group consisting of uretdione, isocyanurate, allophanate, urea, biuret, iminooxadiazinedione and oxadiazinetrione structures, comprising the steps of a) providing a reaction mixture comprising (i) a polyisocyanate composition A containing blocked isocyanates, where the blocking agent is selected from the group consisting of phenols, oximes and lactams, and (ii) at least one crosslinking catalyst B; and b) curing the polyisocyanate composition A to give a polymer crosslinked by at least one structure selected from the group consisting of uretdione, isocyanurate, allophanate, urea, biuret, iminooxadiazinedione and oxadiazinetrione structures until not more than 20 % of the isocyanate groups originally present in the polyisocyanate composition A are present in the cured polymer; with the proviso that the molar ratio of blocked and unblocked isocyanate groups to groups that are reactive toward isocyanate and are present in compounds containing more than one such group in the reaction mixture at the start of process step b) is at least 80%:20%. a) providing a reaction mixture comprising (i) a polyisocyanate composition A containing blocked isocyanates, where the blocking agent is selected from the group consisting of phenols, oximes and lactams, and (ii) at least one crosslinking catalyst B; and (i) a polyisocyanate composition A containing blocked isocyanates, where the blocking agent is selected from the group consisting of phenols, oximes and lactams, and (ii) at least one crosslinking catalyst B; and b) curing the polyisocyanate composition A to give a polymer crosslinked by at least one structure selected from the group consisting of uretdione, isocyanurate, allophanate, urea, biuret, iminooxadiazinedione and oxadiazinetrione structures until not more than 20 % of the isocyanate groups originally present in the polyisocyanate composition A are present in the cured polymer;