mhurhangee/ep-ind-claims huggingface dataset:
Method for monitoring and/or adjusting the pressure of a mounted assembly (1, 21, 31) for a vehicle, the mounted assembly being composed of a tyre (2, 22, 32), preferably tubeless, mounted on a rim (3, 23, 33) and inflated to an initial pressure, the tyre comprising an inner surface forming the wall (4, 24, 34) of the tyre cavity, in contact with the internal air, the wall of the tyre cavity being at least partially covered with a self-sealing material (5, 25, 35), characterized in that an inflation interface (6, 26, 36) is introduced into the tyre cavity by piercing a hole in the wall of the tyre cavity in an area covered by the self-sealing material; in that the inflation interface is extracted from the tyre cavity after inflation; and in that the pierced hole in the wall of the tyre cavity is sealed spontaneously by the self-sealing material after the extraction of the inflation interface.
A method of retreading a tire, the method comprising: interposing a moisture-curing adhesive between an inner surface (602, 702) of a circumferential tread (600, 700) and an outer surface of a tire casing; applying the circumferential tread (600, 700) to the tire casing so the inner surface (602, 702) contacts the outer surface and a bondline edge forms circumferentially about the tire casing proximate to a shoulder of the tire casing; coupling a moisture reservoir to the circumferential tread (600, 700) proximate to the bondline edge; wetting the moisture reservoir such that, responsive to the wetting, moisture is released from the moisture reservoir and permeates the bondline edge; enclosing the circumferential tread (600, 700), the tire casing, and the moisture reservoir within an envelope, the envelope being positioned so as to extend within grooves of a tread pattern on an outer surface (604, 704) of the circumferential tread (600, 700); and removing air from the envelope to apply a pressure to the circumferential tread (600, 700) in a direction generally toward the tire casing, wherein the envelope is positioned within the grooves to reduce moisture circulation between the envelope and the circumferential tread (600, 700). interposing a moisture-curing adhesive between an inner surface (602, 702) of a circumferential tread (600, 700) and an outer surface of a tire casing; applying the circumferential tread (600, 700) to the tire casing so the inner surface (602, 702) contacts the outer surface and a bondline edge forms circumferentially about the tire casing proximate to a shoulder of the tire casing; coupling a moisture reservoir to the circumferential tread (600, 700) proximate to the bondline edge; wetting the moisture reservoir such that, responsive to the wetting, moisture is released from the moisture reservoir and permeates the bondline edge; enclosing the circumferential tread (600, 700), the tire casing, and the moisture reservoir within an envelope, the envelope being positioned so as to extend within grooves of a tread pattern on an outer surface (604, 704) of the circumferential tread (600, 700); and removing air from the envelope to apply a pressure to the circumferential tread (600, 700) in a direction generally toward the tire casing, wherein the envelope is positioned within the grooves to reduce moisture circulation between the envelope and the circumferential tread (600, 700).
System for regulating the room temperature, having a plurality of radiator regulators for receiving desired value signals and for transmitting requirement signals, a control unit for receiving the requirement signals and for adjusting the supply of energy to the system on the basis of the received requirement signals, and a room device which is to be registered with the radiator regulators and with the control unit and is intended to transmit the desired value signals, characterized in that the requirement signals transmitted by the radiator regulators comprise an identification signal of the room device.
A forming device having an entry end and an exit end spaced apart along a machine direction, the forming device comprising a plurality of flute-forming bars (212, 222), said plurality of flute-forming bars (212, 222) comprising first and second sets of flute-forming bars (210, 220) opposing one another and defining therebetween a longitudinal fluting labyrinth, each said set of flute-forming bars (210, 220) extending from adjacent said entry end toward said exit end, characterized in that at least a subset of the plurality of flute-forming bars (212, 222) has a variable-tangent configuration such that imaginary tangents to each of said subset of bars (212, 222), at spaced locations along a length thereof, become successively nearer to parallel with the machine direction such that said subset of bars (212, 222) converge in a cross-machine direction as they proceed toward said exit end.
Mixing vessel for a biogas plant (1, 101, 201) comprising a container with a side wall enclosing an interior in which at least two mixing screws (7a, 7b) are disposed, each of which sweeps a turning circle (8a, 8b) projected onto a working surface (50a, 50b), and comprising a metering screw (11, 111, 211) for discharging the mix, the metering screw having an intake opening (13, 113, 213) for the mix which is located outside the turning circles (8a, 8b), characterised in that the metering screw is disposed in the interior of the container and the intake opening (13, 113, 213) is located in a spandrel area formed by two adjacent turning circles (8a, 8b) and/or in an integrated spandrel fitting.
An airfoil for a gas turbine engine, comprising: a. an interior surface; b. an exterior surface opposed to the interior surface, wherein the exterior surface comprises a pressure side, a suction side opposed to the pressure side, a stagnation line between the pressure and suction sides (20,22), and a trailing edge between the pressure and suction sides (20,22) and downstream from the stagnation line; characterized in that c. a plurality of trenches on the exterior surface, each trench having opposing walls that define a depression or groove in the exterior surface, and each trench being partitioned from radially adjacent trenches by one or more walls which include a portion of the exterior surface; and d. a single cooling passage in each trench, wherein each single cooling passage provides fluid communication from the interior surface into the corresponding trench and onto the exterior surface; wherein at least one trench is at least partially located on the stagnation line between the pressure and suction sides (20,22). a. an interior surface; b. an exterior surface opposed to the interior surface, wherein the exterior surface comprises a pressure side, a suction side opposed to the pressure side, a stagnation line between the pressure and suction sides (20,22), and a trailing edge between the pressure and suction sides (20,22) and downstream from the stagnation line; characterized in that c. a plurality of trenches on the exterior surface, each trench having opposing walls that define a depression or groove in the exterior surface, and each trench being partitioned from radially adjacent trenches by one or more walls which include a portion of the exterior surface; and d. a single cooling passage in each trench, wherein each single cooling passage provides fluid communication from the interior surface into the corresponding trench and onto the exterior surface;
An apparatus for subjecting a surface of a substrate to surface reactions of at least a first precursor and a second precursor according to the principles of atomic layer deposition, said apparatus comprising - a reaction chamber forming a reaction space for receiving precursor gases reacting on the surface of the substrate, - a substrate support for holding the substrate, - a dielectric plate, wherein the dielectric plate is arranged removably to the apparatus such that it can be removed from the apparatus without disassembling the whole apparatus, and - an electrode coupled to a voltage source to induce voltage to the electrode for generating electric discharge to the reaction space, - the dielectric plate being arranged between the substrate support and the electrode so that the reaction space is arranged between the substrate support and the dielectric plate, the substrate support being movable in a vertical direction for moving the substrate between a process position in which the reaction chamber is in a closed state and a loading position in which the reaction chamber is in an open state, characterized in that the dielectric plate is movable together with the substrate support between the process position and the loading position. - a reaction chamber forming a reaction space for receiving precursor gases reacting on the surface of the substrate, - a substrate support for holding the substrate, - a dielectric plate, wherein the dielectric plate is arranged removably to the apparatus such that it can be removed from the apparatus without disassembling the whole apparatus, and - an electrode coupled to a voltage source to induce voltage to the electrode for generating electric discharge to the reaction space, - the dielectric plate being arranged between the substrate support and the electrode so that the reaction space is arranged between the substrate support and the dielectric plate, the substrate support being movable in a vertical direction for moving the substrate between a process position in which the reaction chamber is in a closed state and a loading position in which the reaction chamber is in an open state, characterized in that the dielectric plate is movable together with the substrate support between the process position and the loading position.
An RFID tag, comprising: a substrate; a chip bonded to the substrate with an adhesive, and including a first connection terminal (101/102) on a first surface, the first surface being on a side bonded to the substrate; a first antenna wiring (31/32, 33/34, 35/36, 37/38) formed on the substrate, and electrically coupled to the first connection terminal; and an adhesive layer formed of the adhesive, and including a base portion and a filet portion, the base portion being in an area of the substrate opposed to the first surface of the chip, the filet portion being in an area of the substrate surrounding the chip, wherein a conductive pattern of the first antenna wiring includes two or more apertures at an end portion, the end portion being on a side coupled to the first connection terminal, and the apertures are formed such that the apertures cross an outer edge of the filet portion of the adhesive layer and the first antenna wiring comprises a plurality of paths (71, 72/73, 74, 81-83/84-86, 91-93/94-96) at the outer edge. a substrate; a chip bonded to the substrate with an adhesive, and including a first connection terminal (101/102) on a first surface, the first surface being on a side bonded to the substrate; a first antenna wiring (31/32, 33/34, 35/36, 37/38) formed on the substrate, and electrically coupled to the first connection terminal; and an adhesive layer formed of the adhesive, and including a base portion and a filet portion, the base portion being in an area of the substrate opposed to the first surface of the chip, the filet portion being in an area of the substrate surrounding the chip, wherein a conductive pattern of the first antenna wiring includes two or more apertures at an end portion, the end portion being on a side coupled to the first connection terminal, and the apertures are formed such that the apertures cross an outer edge of the filet portion of the adhesive layer and the first antenna wiring comprises a plurality of paths (71, 72/73, 74, 81-83/84-86, 91-93/94-96) at the outer edge.
A process for preparing an iodinated fatty acid ethyl ester, characterized by steps of: a) subjecting a fatty acid ester selected from the group consisting of a fatty acid ethyl ester and a triglyceride to a protonation reaction with phosphoric acid to form a protonated fatty acid ester; and b) subjecting the protonated fatty acid ester to an iodination reaction with an alkali metal iodide to obtain an iodinated fatty acid ester. a) subjecting a fatty acid ester selected from the group consisting of a fatty acid ethyl ester and a triglyceride to a protonation reaction with phosphoric acid to form a protonated fatty acid ester; and b) subjecting the protonated fatty acid ester to an iodination reaction with an alkali metal iodide to obtain an iodinated fatty acid ester.
An organic electroluminescence light emitting device, comprising: a flexible base material; an organic electroluminescence element provided on the flexible base material; a first sealing section sealing the organic electroluminescence element over the flexible base material; a moisture absorbent layer provided on the first sealing section; and a second sealing section covering the moisture absorbent layer and the first sealing section; characterised by a third sealing section that is bonded to the second sealing section with the flexible base material, the organic electroluminescence element, the first sealing section, and the moisture absorbent layer in between; and flexible printed circuits configured to lead electrodes of the organic electroluminescence element to the outsides of the second sealing section and the third sealing section through a peripheral seal part from between the second sealing section and the third sealing section. a flexible base material; an organic electroluminescence element provided on the flexible base material; a first sealing section sealing the organic electroluminescence element over the flexible base material; a moisture absorbent layer provided on the first sealing section; and a second sealing section covering the moisture absorbent layer and the first sealing section; characterised by a third sealing section that is bonded to the second sealing section with the flexible base material, the organic electroluminescence element, the first sealing section, and the moisture absorbent layer in between; and flexible printed circuits configured to lead electrodes of the organic electroluminescence element to the outsides of the second sealing section and the third sealing section through a peripheral seal part from between the second sealing section and the third sealing section.
A method for managing control channel usage in Carrier Aggregation, comprising: defining a time reuse factor and a time reuse pattern for a Physical Uplink Control Channel (PUCCH) resource on a Primary Cell (PCell) for enabling time multiplexing the subframes of the resource; and assigning a Physical Uplink Control Channel (PUCCH) resource element to a requesting User Equipment by using colliding resources in different subframes, wherein the time reuse factor and the time reuse pattern are variably set based on at least one of the number of requesting User Equipments and the individual traffic needs of the requesting User Equipment. defining a time reuse factor and a time reuse pattern for a Physical Uplink Control Channel (PUCCH) resource on a Primary Cell (PCell) for enabling time multiplexing the subframes of the resource; and assigning a Physical Uplink Control Channel (PUCCH) resource element to a requesting User Equipment by using colliding resources in different subframes, wherein the time reuse factor and the time reuse pattern are variably set based on at least one of the number of requesting User Equipments and the individual traffic needs of the requesting User Equipment.
Rotor having permanent excitation, which for the purposes of permanent excitation has a plurality of permanent magnets arranged around a shaft of the rotor in the circumferential direction, wherein a flux-conducting device is provided for conducting a magnetic flux of the permanent magnets, wherein the permanent magnets are attached to the shaft itself and the flux-conducting device comprises a plurality of separate soft-magnetic flux-conducting elements, each of which is mounted between two of the permanent magnets and fixed thereto, and by this means is indirectly held in place on the shaft, characterised in that at least one of the permanent magnets is soldered or welded onto the shaft or is connected to the shaft in a positive-fitting manner and at least one of the flux-conducting elements has at least one contact area in which the flux-conducting element covers an outer edge of one of the permanent magnets in the radial direction.
An ink cartridge (10, 10'), comprising: a first signal blocking portion; a second signal blocking portion (189, 199); and a third signal blocking portion, wherein the first signal blocking portion is configured to either prevent a first signal from passing there through or to alter a path of the first signal when the first signal blocking portion receives the first signal, the second signal blocking portion (189, 199) is configured to either prevent a second signal from passing there through or to alter a path of the second signal when the second signal blocking portion (189, 199) receives the second signal, and the third signal blocking portion is configured to either prevent the second signal from passing there through or to alter a path of the second signal when the third signal blocking portion receives the second signal, wherein the ink cartridge (10, 10') having a width in a width direction, a height in a height direction and a depth in a depth direction, wherein each of the height and the depth is greater than the width, wherein a distance between the first signal blocking portion and the second signal blocking portion (189, 199) is 32 millimeters to 35 millimeters in the height direction. a first signal blocking portion; a second signal blocking portion (189, 199); and a third signal blocking portion, wherein the first signal blocking portion is configured to either prevent a first signal from passing there through or to alter a path of the first signal when the first signal blocking portion receives the first signal, the second signal blocking portion (189, 199) is configured to either prevent a second signal from passing there through or to alter a path of the second signal when the second signal blocking portion (189, 199) receives the second signal, and the third signal blocking portion is configured to either prevent the second signal from passing there through or to alter a path of the second signal when the third signal blocking portion receives the second signal, wherein the first signal blocking portion is configured to either prevent a first signal from passing there through or to alter a path of the first signal when the first signal blocking portion receives the first signal, the second signal blocking portion (189, 199) is configured to either prevent a second signal from passing there through or to alter a path of the second signal when the second signal blocking portion (189, 199) receives the second signal, and the third signal blocking portion is configured to either prevent the second signal from passing there through or to alter a path of the second signal when the third signal blocking portion receives the second signal, wherein the ink cartridge (10, 10') having a width in a width direction, a height in a height direction and a depth in a depth direction, wherein each of the height and the depth is greater than the width, wherein a distance between the first signal blocking portion and the second signal blocking portion (189, 199) is 32 millimeters to 35 millimeters in the height direction.
A well tool, comprising: a magnetic coupling between first and second magnet devices, wherein the second magnet device includes a series of magnets which are unequally spaced circumferentially about the first magnet device, wherein a first circumferential spacing between the magnets is less than a second circumferential spacing between the magnets, wherein the second magnet device is disposed within a wall of a pressure bearing housing, and wherein at least one line is positioned in the second circumferential spacing between the magnets.
Arbor of a pivoting movable timepiece component, said arbor being made in one or more aligned parts, characterized in that said arbor is magnetically inhomogeneous with a variation in the intrinsic magnetic properties of said arbor axially and/or radially with respect to said pivot axis, and characterized in that only the material located at the core of said arbor, in a central area in proximity to the pivot axis of said arbor made of steel, has a high saturation field of value (Bs) higher than 1 T, a maximum magnetic permeability (μ R) higher than 50, and a coercive field (Hc) higher than 3 kA/m, whereas the material in a peripheral area of said arbor is either weakly paramagnetic, or ferromagnetic with a low saturation field (Bs) of value lower than 0.5 T, a low maximum magnetic permeability (μR) less than 10, and a low coercive field.
A secondary battery comprising: an electrode assembly comprising an electrode uncoated portion exposed to at least one side; a current collector plate (120, 130) electrically connected to the electrode uncoated portion of the electrode assembly; a case to accommodate the electrode assembly and the current collector plate (120, 130); and a cap assembly to seal the case, wherein the current collector plate (120, 130) comprises an upper coupling portion and a lower coupling portion coupled to the electrode uncoated portion, and a protrusion protruding toward the case between the upper coupling portion and the lower coupling portion, wherein the current collector plate (120, 130) comprises: an electrode connection part (121, 131) welded to the electrode uncoated portion of the electrode assembly and extending along a side of the electrode assembly; and a terminal connection part (122, 132) comprising an end coupled to an upper end of the electrode connection part, and another end coupled to a terminal protruding through the cap assembly, characterised in that a width of the upper coupling portion is greater than that of other regions of the electrode connection part. an electrode assembly comprising an electrode uncoated portion exposed to at least one side; a current collector plate (120, 130) electrically connected to the electrode uncoated portion of the electrode assembly; a case to accommodate the electrode assembly and the current collector plate (120, 130); and a cap assembly to seal the case, wherein the current collector plate (120, 130) comprises an upper coupling portion and a lower coupling portion coupled to the electrode uncoated portion, and a protrusion protruding toward the case between the upper coupling portion and the lower coupling portion, wherein the current collector plate (120, 130) comprises: an electrode connection part (121, 131) welded to the electrode uncoated portion of the electrode assembly and extending along a side of the electrode assembly; and a terminal connection part (122, 132) comprising an end coupled to an upper end of the electrode connection part, and another end coupled to a terminal protruding through the cap assembly, characterised in that a width of the upper coupling portion is greater than that of other regions of the electrode connection part. an electrode connection part (121, 131) welded to the electrode uncoated portion of the electrode assembly and extending along a side of the electrode assembly; and a terminal connection part (122, 132) comprising an end coupled to an upper end of the electrode connection part, and another end coupled to a terminal protruding through the cap assembly, characterised in that a width of the upper coupling portion is greater than that of other regions of the electrode connection part.