mhurhangee/ep-ind-claims huggingface dataset:
An insulating sheet comprising: a substrate film having insulation; and a resin layer stacked on a first surface side of the substrate film, wherein: the resin layer contains a resin component that contains a thermoplastic polyurethane elastomer as a main component, and a flame retardant, the thermoplastic polyurethane elastomer has a shore A hardness referring to the hardness measured with a type-A durometer in accordance with JIS-K 7311 of 80 or more, an amount of the flame retardant contained relative to 100 parts by mass of the resin component is 40 parts by mass or more and 100 parts by mass or less, the resin component in the resin layer contains a copolyester, and an amount of the copolyester in the resin component is 1 mass% or more and 50 mass% or less, the glass transition temperature (Tg) of the copolyester, referring to the midpoint glass transition temperature measured in accordance with JIS-K-7121, is -80°C or more and 50°C or less, and the storage modulus of the resin layer, measured in accordance with of JIS-K 7244-4 under conditions of 150°C, a frequency of 10 Hz, and a strain of 0.08%, is 0.5 MPa or more and 500 MPa or less. a substrate film having insulation; and a resin layer stacked on a first surface side of the substrate film, wherein: the resin layer contains a resin component that contains a thermoplastic polyurethane elastomer as a main component, and a flame retardant, the thermoplastic polyurethane elastomer has a shore A hardness referring to the hardness measured with a type-A durometer in accordance with JIS-K 7311 of 80 or more, an amount of the flame retardant contained relative to 100 parts by mass of the resin component is 40 parts by mass or more and 100 parts by mass or less, the resin component in the resin layer contains a copolyester, and an amount of the copolyester in the resin component is 1 mass% or more and 50 mass% or less, the glass transition temperature (Tg) of the copolyester, referring to the midpoint glass transition temperature measured in accordance with JIS-K-7121, is -80°C or more and 50°C or less, and the resin layer contains a resin component that contains a thermoplastic polyurethane elastomer as a main component, and a flame retardant, the thermoplastic polyurethane elastomer has a shore A hardness referring to the hardness measured with a type-A durometer in accordance with JIS-K 7311 of 80 or more, an amount of the flame retardant contained relative to 100 parts by mass of the resin component is 40 parts by mass or more and 100 parts by mass or less, the resin component in the resin layer contains a copolyester, and an amount of the copolyester in the resin component is 1 mass% or more and 50 mass% or less, the glass transition temperature (Tg) of the copolyester, referring to the midpoint glass transition temperature measured in accordance with JIS-K-7121, is -80°C or more and 50°C or less, and
A fuel tank comprising a purge system, said purge system comprising: an airflow source to provide an airflow; and said fuel tank, including: a tank volume including a tank ullage; at least one inlet, wherein the at least one inlet is in fluid communication with the tank ullage and the airflow source to provide the airflow as an inbound airflow to the tank ullage; and at least one outlet, wherein the at least one outlet is in fluid communication with the tank ullage and an overboard location outside the aircraft to direct the inbound airflow as an outbound airflow from the tank ullage to the overboard location; characterized by further comprising a heat exchanger in fluid communication with the inbound airflow and the outbound airflow and wherein the inbound airflow is in thermal communication with the outbound airflow via the heat exchanger to maintain the inbound airflow below lower explosive fuel temperature limits and above fuel gelling temperatures. an airflow source to provide an airflow; and said fuel tank, including: a tank volume including a tank ullage; at least one inlet, wherein the at least one inlet is in fluid communication with the tank ullage and the airflow source to provide the airflow as an inbound airflow to the tank ullage; and a tank volume including a tank ullage; at least one inlet, wherein the at least one inlet is in fluid communication with the tank ullage and the airflow source to provide the airflow as an inbound airflow to the tank ullage; and at least one outlet, wherein the at least one outlet is in fluid communication with the tank ullage and an overboard location outside the aircraft to direct the inbound airflow as an outbound airflow from the tank ullage to the overboard location; characterized by further comprising a heat exchanger in fluid communication with the inbound airflow and the outbound airflow and wherein the inbound airflow is in thermal communication with the outbound airflow via the heat exchanger to maintain the inbound airflow below lower explosive fuel temperature limits and above fuel gelling temperatures.
A balloon catheter, characterised in that the balloon catheter, at least on parts of the outwardly turned surface of the dilatable region, has hair-like extensions, wherein the average diameter D, the average length L, and the average centre-to-centre distance P of the hair-like extensions to each other is selected such that a drug on the balloon surface covered with hair-like extensions is fixable substantially by means of capillary forces, wherein D is selected from a range of from 0.1 to 5 μm, L is selected from a range of from 0.1 to 5 μm, and P is selected from a range of from 0.1 to 7 μm, and wherein the ratio D to L is selected from a range of from 0.5 to 2 and the ratio P to D is selected from a range of from 1 to 50.
A sound transmission apparatus comprising: an ear tip comprising a sound transmission path, a first segment comprising a first elastic material, and a second retaining segment comprising a second elastic material coupled to the first segment, wherein the first segment comprises an elongated hollow tube having an end integrally joined to an ear dome comprised of the first elastic material and configured for holding the ear tip in place within a user's ear canal during use, the second retaining segment configured to attach the ear tip to a nozzle of a sound generating device, the_sound transmission path comprising a central channel passing through the first segment, the second segment and the ear dome; wherein the first elastic material is a flexible, biocompatible material exhibiting greater vibration and sound dampening properties than the second elastic material, and wherein the second elastic material is different from the first elastic material, the second elastic material having a higher elasticity memory and residual retention force than the first elastic material, and wherein the first elastic material dampens mechanical energy imparted to the sound transmission apparatus by acoustic pressure contained within said air path, whereby unintentional and undesired acousto-mechanical sound coupling is reduced. an ear tip comprising a sound transmission path, a first segment comprising a first elastic material, and a second retaining segment comprising a second elastic material coupled to the first segment, wherein the first segment comprises an elongated hollow tube having an end integrally joined to an ear dome comprised of the first elastic material and configured for holding the ear tip in place within a user's ear canal during use, the second retaining segment configured to attach the ear tip to a nozzle of a sound generating device, the_sound transmission path comprising a central channel passing through the first segment, the second segment and the ear dome; wherein the first elastic material is a flexible, biocompatible material exhibiting greater vibration and sound dampening properties than the second elastic material, and wherein the second elastic material is different from the first elastic material, the second elastic material having a higher elasticity memory and residual retention force than the first elastic material, and wherein the first elastic material dampens mechanical energy imparted to the sound transmission apparatus by acoustic pressure contained within said air path, whereby unintentional and undesired acousto-mechanical sound coupling is reduced.
An inhalable powder composition comprising: a plurality of particles comprising an anatabine compound and a sugar or adhesion reducing compound, the plurality of particles having a particle size of about 20 micrometres or less, or of about 10 micrometres or less, or from about 1 to about 4 micrometres, or of about 20 micrometres to about 200 micrometres measured as mass medium aerodynamic diameter with a cascade impactor.
A method of making a ceramic prepreg comprising: a) exposing at least one coated tow to a ceramic matrix slurry comprising a solvent and a ceramic precursor, wherein the coated tow comprises a bundle of ceramic fibers surrounded by at least 0.2 weight percent of a coating based on the total weight of the coated tow; and b) infusing the slurry into the bundle of ceramic fibers to form the ceramic prepreg; wherein at least 80 percent by weight of the coating is soluble in the solvent at 25 °C. a) exposing at least one coated tow to a ceramic matrix slurry comprising a solvent and a ceramic precursor, wherein the coated tow comprises a bundle of ceramic fibers surrounded by at least 0.2 weight percent of a coating based on the total weight of the coated tow; and b) infusing the slurry into the bundle of ceramic fibers to form the ceramic prepreg;
Agricultural funicular traction system with electric propulsion, said system comprising two agricultural machines, respectively one left-handed machine and one right-handed machine, working as a couple, said machines left-handed and right-handed being technically identical, each machine provided with a frame, with four wheels, a driving and reversible control unit, a hoist, provided with safety clutch, around which a cable winds, jacks for steadiness, on the working side of the machine, towards the field to till, and weights for steadiness (counterweights), means for independent and remote automatic driving, the work as a couple of said machines left-handed and right-handed being realized by means of said cable having appropriate elasticity and tensile strength features, that extends, winding and unwinding during the work, between the respective hoists of the two machines, on said cable being provided an agricultural tool that moves, at the same time as said cable winds around said hoists, between said left-handed and right-handed machines, said system being characterised in that it is provided, in correspondence of the coupling of the agricultural tool with said cable, with a telescopic arm able to lift the cable during the advancement of the machines for the positioning in the next working position.
A method of fabricating a hybrid nanostructure by electric field directed assembly of nanoelements, the method comprising the steps of: providing a nanosubstrate comprising a base layer, a conductive layer deposited onto the base layer, and an insulating layer deposited onto the conductive layer, the insulating layer comprising a via, the via forming a void in the insulating layer and defining a pathway through the insulating layer that exposes the conductive layer; contacting the nanosubstrate with an aqueous suspension of first nanoelements; applying an electric field between the conducting layer and an electrode in the suspension for a period of time sufficient for migration of first nanoelements from the suspension into the via and their assembly in the via, wherein the electric field consists of the sum of a DC offset voltage and an AC voltage; and repeating, after the assembly, the contacting and the applying steps, using an aqueous suspension of second nanoelements different from the first nanoelements, thereby obtaining a hybrid nanostructure. providing a nanosubstrate comprising a base layer, a conductive layer deposited onto the base layer, and an insulating layer deposited onto the conductive layer, the insulating layer comprising a via, the via forming a void in the insulating layer and defining a pathway through the insulating layer that exposes the conductive layer; contacting the nanosubstrate with an aqueous suspension of first nanoelements; applying an electric field between the conducting layer and an electrode in the suspension for a period of time sufficient for migration of first nanoelements from the suspension into the via and their assembly in the via, wherein the electric field consists of the sum of a DC offset voltage and an AC voltage; and repeating, after the assembly, the contacting and the applying steps, using an aqueous suspension of second nanoelements different from the first nanoelements, thereby obtaining a hybrid nanostructure.
Apparatus (1, 101) for producing an object by means of additive manufacturing, comprising: - a process chamber (5, 105) for receiving on a build surface (7, 107) of a build plate (9, 109) a bath of powdered material which can be solidified; - a support (13, 113) for supporting on a supporting surface thereof said build plate (9, 109) and positioning said build plate (9, 109) in relation to a surface level of said bath of powdered material, wherein said build plate (9, 109) is removably connectable to said supporting surface; - a solidifying device for solidifying a selective part of said material by emitting electromagnetic radiation; and - a build plate takeover device (17, 117) comprising an actuating element for placing said build plate (9, 109) onto said supporting surface of said support (13, 113) for producing said object and removing said build plate (9, 109) from said supporting surface (21, 121) of said support (13, 113). - a process chamber (5, 105) for receiving on a build surface (7, 107) of a build plate (9, 109) a bath of powdered material which can be solidified; - a support (13, 113) for supporting on a supporting surface thereof said build plate (9, 109) and positioning said build plate (9, 109) in relation to a surface level of said bath of powdered material, wherein said build plate (9, 109) is removably connectable to said supporting surface; - a solidifying device for solidifying a selective part of said material by emitting electromagnetic radiation; and - a build plate takeover device (17, 117) comprising an actuating element for placing said build plate (9, 109) onto said supporting surface of said support (13, 113) for producing said object and removing said build plate (9, 109) from said supporting surface (21, 121) of said support (13, 113).
Paint application device for a glass plate, wherein the device comprises a supporting device for the glass plate which rests immovably on this during the paint application as well as at least one paint application roller for application of paint to the glass plate, wherein the paint application roller is held in a frame structure and is movable relative to the frame structure and the paint application roller cooperates with a doctor roller in order to apply paint onto the paint application roller with a desired thickness.
A flipping mechanism for rotating a flat element between a first position and a second position, the flat element having a first side facing a first direction and a second side facing an opposite direction, wherein in the first position of the flat element the first side of the element faces a predetermined direction, and in the second position of the flat element the second side of the element faces said predetermined direction, the flipping mechanism comprising - a first linear guide comprising a rail having a first end and a second end, and a slide moveable along the rail between the first end and the second end, - a first swivel arm having a first end and a second end, the first end being connected adjacent to the first end of the rail of the first linear guide in such a way that the swivel arm can be rotated about its first end between a first position, in which position the swivel arm is parallel to the rail of the first linear guide, and a second position, in which position the swivel arm is perpendicular to the rail of the linear guide, and - a first rotation element having a first end and a second end, the first end being connected in a rotatable manner to the slide of the linear guide, the rotation element being further connected to the swivel arm in a rotatable manner such that rotation of the rotation element about its first end causes rotation of the swivel arm about its first end. - a first linear guide comprising a rail having a first end and a second end, and a slide moveable along the rail between the first end and the second end, - a first swivel arm having a first end and a second end, the first end being connected adjacent to the first end of the rail of the first linear guide in such a way that the swivel arm can be rotated about its first end between a first position, in which position the swivel arm is parallel to the rail of the first linear guide, and a second position, in which position the swivel arm is perpendicular to the rail of the linear guide, and - a first rotation element having a first end and a second end, the first end being connected in a rotatable manner to the slide of the linear guide, the rotation element being further connected to the swivel arm in a rotatable manner such that rotation of the rotation element about its first end causes rotation of the swivel arm about its first end.
Apparatus for producing concrete molded parts in a molding machine, which apparatus comprises a mold upper part having a pressure plate arrangement which has a plurality of pressure plates each facing an opening of a mold cavity, each pressure plate being screwed to an intermediate plate, the intermediate plate being connected, on the side facing the mold upper part, to a stamp plate on the mold upper part via at least one pressure stamp, the intermediate plate being fixed to the stamp plate by at least one bolt that can be screwed being guided through a receptacle on the intermediate plate, which bolt detachably engages in the intermediate plate and comprises a hollow body between the intermediate plate and the stamp plate, which hollow body encloses the bolt, characterized in that the intermediate plate comprises openings and the outer periphery of the intermediate plate forms, together with inner surfaces of the receptacles and the openings in the intermediate plate, a closed curve and the receptacles and the openings in the intermediate plate are inwardly offset from the outer edge of the intermediate plate, the receptacles and the openings comprising recesses oriented towards the outer edge.
An adjustment device (28, 50, 60; 90) for adjustment of a spacing between a first and a second cutting blade (21, 22; 51, 52) for a cutting device; the first cutting blade (21; 51) having a planar first contact surface (31; 61), an opposite first outer surface (21'; 51') and comprising at least one first cutting edge (23; 53) in a first plane and; the second cutting blade (22; 52) having a planar second contact surface (32; 62), an opposite second outer surface (22', 52') and comprising at least one second cutting edge (24; 54) in a second plane, where the first contact surface (31, 61) and the second contact surface (32, 62) are facing and aligned with each other; the first and second cutting blades (21, 22; 51, 52) being interconnected by at least one adjustment device (28; 50; 90) arranged to maintain the spacing between their the first and second planar contact surfaces (31, 32; 61, 62); the adjustment device (28; 50; 90) comprising: a connector (34; 64; 79; 84; 94) extending through a recess in the respective first and second cutting blades (21, 22; 51, 52); a first stop (33; 63; 102) arranged at one end of the connector (34; 64; 79; 84; 94) and arranged in contact with the outer surface (22'; 52') of the second cutting blade (22; 52); and an adjustment means (40; 70; 80; 100) located at the opposite end of the connector (34; 64; 79; 84; 94) and arranged to act on the outer surface of the first cutting blade (21; 51) and maintain the spacing between first and second contact surfaces (31, 32); the adjustment means (40; 70; 80; 100) comprises a first and a second element each having interacting control surfaces (45, 47; 75, 76; 85, 87); the first and second elements (41, 42; 71, 72; 81, 82) are arranged to be displaceable relative to each other; at least one element has a control surface (45, 47; 75, 76; 85, 87) arranged at an angle to the contact surfaces (31, 32; 61, 62) of the blades (21, 22; 51, 52); and at least one element is spring loaded to effect a relative displacement between the first and second elements (41, 42; 71, 72; 81, 82) characterized in that the relative displacement between the first and second elements (41, 42; 71, 72; 81, 82) occurs along said control surface (45, 47; 75, 76; 85, 87) and at least one of the first and second elements (41, 42; 71, 72; 81, 82) is arranged to be displaceable in a plane parallel to the contact surfaces of the blades (21, 22; 51, 52), wherein the relative displacement between the first and second elements (41, 42; 71, 72; 81, 82) performs a movement directed simultaneously parallel to and at right angles to the first and the second contact surfaces (31, 32; 61, 62) and causes an automatic adjustment of the spacing between the first contact surface (31,61) and the second contact surface (32, 62) of the blades (21, 22; 51, 52).
Nuclear facility with a fuel pool containing a liquid and with an associated cooling circuit for a circulating cooling agent, the cooling circuit comprising: a cooling module with a first heat exchanger immerged into the liquid, a second heat exchanger which is located outside the fuel pool, connecting lines between the first exchanger and the second heat exchanger, wherein the cooling module comprises a lifting body and is configured to float in the liquid such that its altitude varies passively with the filling level of the liquid in the fuel pool, characterized by at least one guide element (58, 66) configured to prevent lateral displacement of the cooling module. a cooling module with a first heat exchanger immerged into the liquid, a second heat exchanger which is located outside the fuel pool, connecting lines between the first exchanger and the second heat exchanger, wherein the cooling module comprises a lifting body and is configured to float in the liquid such that its altitude varies passively with the filling level of the liquid in the fuel pool, characterized by at least one guide element (58, 66) configured to prevent lateral displacement of the cooling module.