mhurhangee/ep-ind-claims huggingface dataset:
Oxygen-permeable layer for detecting molecular oxygen, the layer having a carrier material, the carrier material being polyvinylidene fluoride or a copolymer of polyvinylidene fluoride, characterized in that the carrier material comprises at least one particle which comprises a polymer or a copolymer, the polymer or copolymer of the particle having a chemically covalently bonded indicator compound for detecting molecular oxygen, and the particle being mechanically immobilized in the carrier material.
Automatic method for regulating a power plant of an aircraft comprising at least one turboengine according to an idling mode of operation, each turboengine comprising a gas generator and a free turbine, characterized in that: - during a selection phase, an idling mode of operation is selected, and - during a regulation phase, if the aircraft is resting on the ground, the idling mode of operation is automatically implemented according to operational and hierarchical conditions: ∘ either through a first mode of regulation by regulating a first speed of rotation (Ng) which is the speed of rotation of said gas generator, ∘ or through a second mode of regulation by regulating a second speed of rotation which is the speed of rotation of said free turbine. - during a selection phase, an idling mode of operation is selected, and - during a regulation phase, if the aircraft is resting on the ground, the idling mode of operation is automatically implemented according to operational and hierarchical conditions: ∘ either through a first mode of regulation by regulating a first speed of rotation (Ng) which is the speed of rotation of said gas generator, ∘ or through a second mode of regulation by regulating a second speed of rotation which is the speed of rotation of said free turbine. ∘ either through a first mode of regulation by regulating a first speed of rotation (Ng) which is the speed of rotation of said gas generator, ∘ or through a second mode of regulation by regulating a second speed of rotation which is the speed of rotation of said free turbine.
A method of screening a mammal for the onset or predisposition to the onset of a condition characterised by one or more symptoms of schizophrenia said method comprising determining the level of functional protein 14-3-3ζ in a biological sample derived from said mammal and correlating a decrease in the level of functional protein 14-3-3ζ relative to control levels wherein a lower level of said functional protein 14-3-3ζ relative to control levels is indicative of the onset or predisposition to the onset of said condition and wherein the level of functional protein 14-3-3ζ is the absolute level of protein 14-3-3ζ or the level of a protein 14-3-3ζ/DISC1 complex.
Plug-in coupling for a pipe, in particular for water conduits, having a coupling sleeve which receives the pipe end, having a sealing ring which is inserted into the coupling sleeve, having a locking ring which is mounted upstream of the sealing ring in the plug-in direction of the pipe end and which forms retaining claws which protrude towards the pipe end and are inclined in the plug-in direction, and having an annular body which is likewise mounted upstream of the sealing ring and is supported axially with respect to the coupling sleeve in the plug-in direction, characterised in that the annular body comprises a protective ring for surrounding the end face of the pipe end from the outside and an intended breaking connection which is attached to the protective ring and which releases the protective ring when pressure is exerted in the axial direction.
Herbicidal composition comprising herbicidally active compounds and, wherein is A1, or an agrochemically acceptable salt of that compound, where compound A1 is defined as follows: and is one or more components selected from (B2.18) diflufenican, (B2.28) flufenacet, (B2.31) foramsulfuron, (B2.37) mesosulfuron, (B2.58) propyzamide, (B2.68) thiencarbazone, (B3.1) bromoxynil, (B4.22) pyrasulfotole, (B5.31) halauxifen, (B7.4) glufosinate, (B7.5) glyphosate, (B11.6) indaziflam. A1, or an agrochemically acceptable salt of that compound, where compound A1 is defined as follows: and is one or more components selected from (B2.18) diflufenican, (B2.28) flufenacet, (B2.31) foramsulfuron, (B2.37) mesosulfuron, (B2.58) propyzamide, (B2.68) thiencarbazone, (B3.1) bromoxynil, (B4.22) pyrasulfotole, (B5.31) halauxifen, (B7.4) glufosinate, (B7.5) glyphosate, (B11.6) indaziflam. (B2.18) diflufenican, (B2.28) flufenacet, (B2.31) foramsulfuron, (B2.37) mesosulfuron, (B2.58) propyzamide, (B2.68) thiencarbazone, (B3.1) bromoxynil, (B4.22) pyrasulfotole, (B5.31) halauxifen, (B7.4) glufosinate, (B7.5) glyphosate, (B11.6) indaziflam.
A blade unit configured to be attached to an electric razor, the blade unit comprising four or more outer blades (100, 210) extending in a first direction; and a sliding member extending in the first direction, wherein at least two outer blades (100, 210) included in the four or more outer blades (100, 210) are arranged on each of both sides of the sliding member; characterized in that the sliding member is configured to project from the four or more outer blades (100, 210) in a second direction which is orthogonal to the first direction at any position in the first direction, when the blade unit is not pressed. four or more outer blades (100, 210) extending in a first direction; and a sliding member extending in the first direction, wherein at least two outer blades (100, 210) included in the four or more outer blades (100, 210) are arranged on each of both sides of the sliding member; characterized in that the sliding member is configured to project from the four or more outer blades (100, 210) in a second direction which is orthogonal to the first direction at any position in the first direction, when the blade unit is not pressed.
A heat-insulating paper container fabricated from a body member of paper having an inside surface laminate of polyethylene component effective to prevent penetration of liquid into the paper during use and an outside surface laminate of foamed low density polyethylene, the body member bonded to a bottom panel member having an upper surface laminated with unfoamed low density polyethylene and a bottom surface, wherein the inside surface laminate comprises an unfoamed modified low density polyethylene and which forms a heat-seal between the bottom panel member and the body member.
An embolic protection device for transvascular delivery to an aortic arch of a patient, for protection of side branch vessels of said aortic arch from embolic material, said device including: a support frame, wherein at least a distal or a proximal portion of said support frame is a spring section (12, 13) configured for providing a radial force between said support frame and a wall of said aortic arch when in an expanded state; a filter member (11, 1011) attached to said support frame, and configured for preventing said embolic material from passage with a blood flow into said side branch vessels of said aortic arch, characterized in that said filter member (11, 1011) has a heat set three-dimensional shape and wherein said filter member (11, 1011) is substantially flat when the support frame is not constrained such as by said wall of said aortic arch. a support frame, wherein at least a distal or a proximal portion of said support frame is a spring section (12, 13) configured for providing a radial force between said support frame and a wall of said aortic arch when in an expanded state; a filter member (11, 1011) attached to said support frame, and configured for preventing said embolic material from passage with a blood flow into said side branch vessels of said aortic arch, characterized in that said filter member (11, 1011) has a heat set three-dimensional shape and wherein said filter member (11, 1011) is substantially flat when the support frame is not constrained such as by said wall of said aortic arch.
A glass ceramic, comprising: at least one lithium silicate crystal phase as a primary crystal phase; and at least one of petalite, β-quartz, β-spodumene, cristobalite, and lithium phosphate as a secondary crystal phase, wherein the glass ceramic is characterized by the following color coordinates: L*: 20.0 to 40.0; a*: -1.0 to 1.0; and b*: -5.0 to 2.0. at least one lithium silicate crystal phase as a primary crystal phase; and at least one of petalite, β-quartz, β-spodumene, cristobalite, and lithium phosphate as a secondary crystal phase, wherein the glass ceramic is characterized by the following color coordinates: L*: 20.0 to 40.0; a*: -1.0 to 1.0; and b*: -5.0 to 2.0. L*: 20.0 to 40.0; a*: -1.0 to 1.0; and b*: -5.0 to 2.0.
A manhole cover assembly, comprising: a manhole cover movable between a seated position in which the manhole cover is supported on a seat of a manhole frame, and an unseated position in which the manhole cover is displaced relative to the seat of the manhole frame; and characterized by a latch assembly, a latch shock absorber, including: a latch housing fixedly coupled to the manhole cover, the latch housing defining a latch cylinder, a latch piston slidably coupled to the latch cylinder, a latch rod fixedly coupled to the latch piston, the latch rod extending through the latch housing, and a latch spring positioned within the latch cylinder adjacent the latch piston; and a latch fixedly coupled to the latch rod, wherein, in response to a pressure applied to the manhole cover, the latch assembly is configured to permit limited displacement of the manhole cover relative to the seat of the manhole frame, and to controllably dissipate energy relating to the pressure. a manhole cover movable between a seated position in which the manhole cover is supported on a seat of a manhole frame, and an unseated position in which the manhole cover is displaced relative to the seat of the manhole frame; and characterized by a latch assembly, a latch shock absorber, including: a latch housing fixedly coupled to the manhole cover, the latch housing defining a latch cylinder, a latch piston slidably coupled to the latch cylinder, a latch rod fixedly coupled to the latch piston, the latch rod extending through the latch housing, and a latch spring positioned within the latch cylinder adjacent the latch piston; and a latch shock absorber, including: a latch housing fixedly coupled to the manhole cover, a latch housing fixedly coupled to the manhole cover, the latch housing defining a latch cylinder, a latch piston slidably coupled to the latch cylinder, a latch rod fixedly coupled to the latch piston, the latch rod extending through the latch housing, and a latch spring positioned within the latch cylinder adjacent the latch piston; and a latch piston slidably coupled to the latch cylinder, a latch rod fixedly coupled to the latch piston, the latch rod extending through the latch housing, and a latch spring positioned within the latch cylinder adjacent the latch piston; and a latch fixedly coupled to the latch rod, wherein, in response to a pressure applied to the manhole cover, the latch assembly is configured to permit limited displacement of the manhole cover relative to the seat of the manhole frame, and to controllably dissipate energy relating to the pressure.
A lock cylinder with a cylinder core mounted rotatably in the lock cylinder housing, and also with an electric/electronic locking means arranged in the lock cylinder housing, which means can be controlled by electronic coding of the key, wherein part of the locking means is a locking bar which is radially displaceable in the cylinder core, which bar for the locking position, in which rotation of the cylinder core is prevented, can be pressed, extending with its front end over the lock cylinder housing/cylinder core separating plane, into a recess on the inner periphery of the lock cylinder housing, characterised in that the locking bar is supported on the rearward end on a blocking pin which in the supporting position prevents movement of the locking bar out of the recess in the lock cylinder housing and hence rotation of the cylinder core but is movable out of its supporting position for the locking bar by an adjustment element which acts on the blocking pin and which is part of the electric/electronic locking means, so that the locking bar can then by rotation of the cylinder core be pressed out of the recess in the lock cylinder housing, the blocking pin being formed in rod-like manner and being connected pivotably to the locking bar by its front end, whereas the rear end which is remote from the locking bar, in the supporting position for the locking bar, is supported on a protrusion in the cylinder core and upon pivoting by the adjustment element can enter into a recess in the cylinder core.
A railway wagon comprising an underframe and at least one bogie, said railway wagon being configured for intermittent compensation of the height of the railway wagon for wheel wear, spring deflection under load, and underframe deflection under load, said railway wagon comprising a mechanical device arranged between the underframe and said at least one bogie of the railway wagon, the thickness of the device being intermittently adjustable for adjusting the vertical distance between said underframe and said bogie, characterized in that said device comprises three concurrently operated sub-devices centrally and at each side of the bogie, wherein the three sub-devices are operated by a transverse shaft and a wheel at at least one side of the wagon, and wherein each sub-device has a wedge mechanism (13, 14) operated by the shaft for adjusting its thickness or height.
Barrier actuation apparatus for arrangement in a cable car station of a cable car for actuating an access barrier of a cable car vehicle of the cable car, which barrier is displaceable between an open position and a closed position, the barrier actuation apparatus being actuatable by a remote-control unit to displace the access barrier from the closed position into the open position and/or vice versa, when the cable car vehicle is located in the cable car station in the area of the barrier actuation apparatus, at least one movable actuating component (28, 30) being provided in the barrier actuation apparatus, which actuating component is displaced by the remote-control unit, when the barrier actuation apparatus is activated, for exerting an actuating force on a mechanically actuatable barrier actuating element of the cable car vehicle provided for actuating the access barrier, the barrier actuating element being displaced by the actuating force to actuate the access barrier, characterized in that at least one opening element is provided as the actuation component (28, 30), which opening element can be displaced between an opening rest position and an opening operating position by an opening actuating unit, the opening element generating an opening force on the barrier actuating element upon displacement from the opening rest position into the opening operating position to displace the access barrier into the open position, and/or in that at least one closing element is provided as the actuating component (28, 30), which closing element can be displaced between a closing rest position and a closing operating position by a closing actuating unit, the closing element generating a closing force on the barrier actuating element upon displacement from the closing rest position into the closing operating position to displace the access barrier into the closed position.
Ozone generating machine for generating ozone in a ship, comprising: - an ozone generator with at least two electrodes (E1, E2) separated by an ozonizing gap and a dielectric layer, the ozone generator comprising at least a gas inlet (O2IN) for receiving a feed gas containing dioxygen, and a gas outlet (O3OUT) for exhausting gas comprising ozone to an ozone circuit of the ship, - a main liquid cooling circuit (CWP, CWT), at least one portion of the main liquid cooling circuit (CWP, CWT) being located inside the ozone generator, to be connected with a cooling circuit of the ship, - a liquid-liquid heat exchanger (LLHEX) connected with the main liquid cooling circuit (CWP, CWT), and - an electrical closed cabinet comprising an electric current converter, characterized in that the ozone generating machine further comprises a closed loop cooling liquid circuit connected with the liquid-liquid heat exchanger (LLHEX) and comprising a converter liquid cooling portion (CECV) arranged to cool the electric current converter. - an ozone generator with at least two electrodes (E1, E2) separated by an ozonizing gap and a dielectric layer, the ozone generator comprising at least a gas inlet (O2IN) for receiving a feed gas containing dioxygen, and a gas outlet (O3OUT) for exhausting gas comprising ozone to an ozone circuit of the ship, - a main liquid cooling circuit (CWP, CWT), at least one portion of the main liquid cooling circuit (CWP, CWT) being located inside the ozone generator, to be connected with a cooling circuit of the ship, - a liquid-liquid heat exchanger (LLHEX) connected with the main liquid cooling circuit (CWP, CWT), and - an electrical closed cabinet comprising an electric current converter,
A seamless steel tube for fuel injection having a composition consisting of, by mass, 0.155% to 0.38% C, 0.01% to 0.49% Si, 1.20% to 2.1% Mn, 0.005% to 0.25% Al, and 0.0010% to 0.010% N and containing, as impurities, 0.030% or less P, 0.025% or less S, 0.005% or less O, and optionally one or more of 0.70% or less Cu, 1.00% or less Ni, 1.20% or less Cr, 0.50% or less Mo, 0.0060% or less B, at least one of 0.20% or less Ti, 0.050% or less Nb, 0.20% or less V, and 0.0040% or less Ca, the balance being Fe and incidental impurities, the composition satisfying condition: Al % × N % ≤ 27 × 10 − 5 wherein Al% and N% are the contents (% by mass) of Al and N, respectively, the steel tube having a structure with an average prior γ grain size of 150 μm or less in an axial cross-section after cold drawing and heat treatment, the steel tube having a tensile strength TS of 500 MPa or more. wherein Al% and N% are the contents (% by mass) of Al and N, respectively, the steel tube having a structure with an average prior γ grain size of 150 μm or less in an axial cross-section after cold drawing and heat treatment, the steel tube having a tensile strength TS of 500 MPa or more.
LED light source comprising at least two LED dice, wherein the LED dice are arranged on a thermally conductive printed circuit board, such that during operation the heat is dissipated through the printed circuit board, wherein the printed circuit board is provided with an insulating layer with the exception of contact areas, wherein contact bumps or contact layers having a maximum height of 100 μm consisting of a solder material having good thermal conductivity are applied on the contact electrodes of the LED dice on an area, wherein the LED dice by means of a flip-chip technique with the contact bumps or contact layers downwards are pressed onto the contact areas of the printed circuit board or in direct proximity thereto and at the same time or subsequently are soldered by means of ultrasound and/or thermally, characterized in that a thermally conductive potting compound is provided between the LED dice and the printed circuit board, and in that the printed circuit board used is a ceramic body, to the top side of which the conductor tracks are applied and the surface of which is shaped in such a way that said ceramic body serves as a heat sink.
Method for the production of a combustion chamber suitable for use in a rocket engine with the steps: - providing a first wall enclosing a combustion space and formed in one piece at least in a circumferential direction of the combustion chamber; - providing a plurality of cooling duct fins which are formed integrated with the first wall and which extend from a surface of the first wall to separate adjacent cooling ducts from one another; - deforming the cooling duct fins at their ends facing away from the surface of the first wall to create a bent section (22; 22a, 22b), which at least partially covers a cooling duct adjacent to the cooling duct fin, wherein a plurality of cooling duct fins are deformed at their ends facing away from the surface of the first wall in such a way that bent sections of adjacent cooling duct fins extend in the same direction in a circumferential direction of the combustion chamber substantially parallel to the first wall and/or wherein at least one of the cooling duct fins is deformed at its end facing away from the surface of the first wall in such a way that a first and a second bent section (22a, 22b) are formed, which extend opposite to one another in the circumferential direction of the combustion chamber substantially parallel to the first wall; and - welding or soldering adjoining bent sections (22; 22a, 22b) of the cooling duct fins to one another. - providing a first wall enclosing a combustion space and formed in one piece at least in a circumferential direction of the combustion chamber; - providing a plurality of cooling duct fins which are formed integrated with the first wall and which extend from a surface of the first wall to separate adjacent cooling ducts from one another; - deforming the cooling duct fins at their ends facing away from the surface of the first wall to create a bent section (22; 22a, 22b), which at least partially covers a cooling duct adjacent to the cooling duct fin, wherein a plurality of cooling duct fins are deformed at their ends facing away from the surface of the first wall in such a way that bent sections of adjacent cooling duct fins extend in the same direction in a circumferential direction of the combustion chamber substantially parallel to the first wall and/or wherein at least one of the cooling duct fins is deformed at its end facing away from the surface of the first wall in such a way that a first and a second bent section (22a, 22b) are formed, which extend opposite to one another in the circumferential direction of the combustion chamber substantially parallel to the first wall; and - welding or soldering adjoining bent sections (22; 22a, 22b) of the cooling duct fins to one another.