mhurhangee/ep-ind-claims huggingface dataset:
Landing gear provided with at least one wheel cooperating with a shock absorber, wherein said shock absorber comprises a first shock absorber sub-assembly provided with a first chamber filled with a first gas, the first chamber being delimited by a first body and a first piston movable relative to the first body to impart a first variable volume to the first chamber sealed to contain the first gas, said damper device comprising a second shock absorber sub-assembly provided with a second chamber filled with a second gas, the second chamber being delimited by a second body and by a second piston movable relative to the second body to impart a second variable volume to the second chamber sealed to contain the second gas, the first chamber having a first pressure that is at its maximum in a rest position of the landing gear preceding a landing, the second chamber having a second pressure that is at its minimum in the rest position, the first pressure of the first gas in the first chamber decreasing while the second pressure of the second gas in the second chamber increases when the landing gear is put under load during a landing.
A bi-folding engine cowl for an aircraft comprising: an upper portion; and a lower portion, wherein the upper portion and the lower portion are mechanically connected on adjacent edges and rotate relative to each other, characterised in that the bi-folding cowl comprises three distinct open positions: (i) a fully-opened position wherein the upper portion and lower portion are folded together along an adjacent edge, (ii) a partially-opened position wherein the upper portion and lower portion are partially folded, and (iii) a fully-opened, lying flat position wherein the bi-folding engine cowl, when in the fully-opened position, is further rotated to lay on a top surface of the aircraft. an upper portion; and a lower portion, wherein the upper portion and the lower portion are mechanically connected on adjacent edges and rotate relative to each other, characterised in that the bi-folding cowl comprises three distinct open positions: (i) a fully-opened position wherein the upper portion and lower portion are folded together along an adjacent edge, (ii) a partially-opened position wherein the upper portion and lower portion are partially folded, and (iii) a fully-opened, lying flat position wherein the bi-folding engine cowl, when in the fully-opened position, is further rotated to lay on a top surface of the aircraft. (i) a fully-opened position wherein the upper portion and lower portion are folded together along an adjacent edge, (ii) a partially-opened position wherein the upper portion and lower portion are partially folded, and (iii) a fully-opened, lying flat position wherein the bi-folding engine cowl, when in the fully-opened position, is further rotated to lay on a top surface of the aircraft.
An aldehyde based resin composition containing one or more reducing sugars preferably chosen from the group consisting of glucose, mannose, glycolaldehyde, glyceraldehyde, erythrose, threose, ribose, arabinose, xylose, lyxose, allose, altrose, gulose, idose, galactose, talose, dihydroxyacetone, erythrulose, ribulose, xylulose, fructose, psicose, sorbose, tagatose, sedoheptulose, glucoheptose, mannoheptose, mannoheptulose, taloheptulose, alloheptulose, aldose, ketose or combinations thereof or a reducing sugar in the form of a carbohydrate feedstock with the bulk properties of a reducing sugar with a dextrose equivalent value of at least 50, even more preferably at least 75, and most preferably greater than 90, and optionally a cyanamide, wherein the aldehyde based resin composition is obtainable by reaction of one or more hydroxy aromatic and/or one or more amino functional compounds with one or more aldehyde functional compounds and wherein the reducing sugar compounds is added before or during said reaction and/or after said reaction, wherein the aldehyde based resin composition has infinite water dilutability defined as a water tolerance greater than 50:1, fifty parts of water in one part of resin, measured according to ISO 8989.
A cutting tool for cutting a tubular, the cutting tool comprising: a tool housing having a longitudinal axis; a tool head having a longitudinal axis and being rotationally mounted to the tool housing; a cutting element located within the tool head, wherein the cutting element defines a cutting profile and is rotationally fixed to the tool head; a first drive mechanism operable to rotate the tool head; and a second drive mechanism operable to control the displacement of the cutting element radially with respect to a surface to be cut, wherein; the first and second drive mechanisms (20, 22) are independently powered; and characterised in that: the first and second drive mechanisms (20, 22) are independently powered by a first drive motor and a second drive motor respectively; the tool head further comprises a cutting element holder, which is rotationally fixed to the tool head by means of screws, wherein the cutting element holder defines a recess in which the cutting element is received, and wherein the cutting element holder defines an aperture which permits engagement of the cutting element with a gear arrangement via the aperture to control the movement of the cutting element such that the cutting element can advance or retract under the action of the second drive motor. a tool housing having a longitudinal axis; a tool head having a longitudinal axis and being rotationally mounted to the tool housing; a cutting element located within the tool head, wherein the cutting element defines a cutting profile and is rotationally fixed to the tool head; a first drive mechanism operable to rotate the tool head; and a second drive mechanism operable to control the displacement of the cutting element radially with respect to a surface to be cut, wherein; the first and second drive mechanisms (20, 22) are independently powered; the first and second drive mechanisms (20, 22) are independently powered by a first drive motor and a second drive motor respectively; the tool head further comprises a cutting element holder, which is rotationally fixed to the tool head by means of screws, wherein the cutting element holder defines a recess in which the cutting element is received, and wherein the cutting element holder defines an aperture which permits engagement of the cutting element with a gear arrangement via the aperture to control the movement of the cutting element such that the cutting element can advance or retract under the action of the second drive motor.
Method for charging a processing device with a profile strand which is to be fed to the processing device and which the processing device, by severing strand portions and connecting the strand portions to a vehicle body, automatically processes to form seals or edge protection strips on the vehicle body, wherein the profile strand is fed in the strand longitudinal direction to the processing device from a delivery unit transported to the processing location while being unwound from a winding contained in the delivery unit, characterized in that the profile strand is selectively unwound as a right-hand profile, which is to be applied to the vehicle body on the right, beginning with one of the two strand ends (17, 17'), or as a left-hand profile, which is to be applied to the vehicle body on the left, beginning with the other strand end (17, 17').
A floor structure (20, 120) for a vehicle, comprising a composite panel, said panel including: - a lower metal plate; - an upper metal plate; and - a layer of thermal insulating material arranged between the lower and upper metal plates; the layer of thermal insulating material comprising a panel of wood or bark; characterized in that the upper metal plate is aluminum, and the lower metal plate is steel. - a lower metal plate; - an upper metal plate; and - a layer of thermal insulating material arranged between the lower and upper metal plates; the layer of thermal insulating material comprising a panel of wood or bark; characterized in that the upper metal plate is aluminum, and the lower metal plate is steel.
A method for manufacturing a flame-resistant polymer-containing solution containing a flame-resistant polymer and a polar organic solvent, which method comprises making an acrylonitrile polymer precursor of the flame-resistant polymer flame-resistant with an oxidizing agent in an amine organic solvent or a polar organic solvent containing an amine compound, wherein the polar organic solvent has a group selected from hydroxyl groups, amino groups, amide groups, sulfonyl groups and sulfone groups and the solvent has compatibility with water, the oxidizing agent is nitro, nitroxide or chinone-based and the amount of oxidizing agent is 0.01 to 100 parts by weight with respect to 100 parts by weight of the precursor polymers, and wherein flame-resistance is determined by a method as disclosed herein.
Prosthetic conduit system comprising: an expandable main conduit having a first open end, a second open end, a main conduit wall extending therebetween, an outer conduit surface, and an inner conduit surface, the expandable main conduit having at least one opening through the main conduit wall, and an internal channel having an inner surface, an outer surface, a first open end located within the main conduit and a second open end at the opening in the main conduit wall; an expandable secondary conduit having a first open end, a second open end, a secondary wall extending therebetween, and attachment portion extending at an angle of less than 90 degrees from the secondary wall when in a deployed state; at least a portion of the secondary conduit being sized to pass through the internal channel of the main conduit and through the opening in the main conduit wall, and the attachment portion being configured to engage and/or interlock onto the first open end of the internal channel. an expandable main conduit having a first open end, a second open end, a main conduit wall extending therebetween, an outer conduit surface, and an inner conduit surface, the expandable main conduit having at least one opening through the main conduit wall, and an internal channel having an inner surface, an outer surface, a first open end located within the main conduit and a second open end at the opening in the main conduit wall; an expandable secondary conduit having a first open end, a second open end, a secondary wall extending therebetween, and attachment portion extending at an angle of less than 90 degrees from the secondary wall when in a deployed state; at least a portion of the secondary conduit being sized to pass through the internal channel of the main conduit and through the opening in the main conduit wall, and the attachment portion being configured to engage and/or interlock onto the first open end of the internal channel.
A pipeline for use in cryogenic applications, comprising an inner tubular structure, the inner tubular structure comprising a flexible hose, wherein the flexible hose comprises: (i) a tubular body disposed between inner and outer gripping members (22, 24), the tubular body including a sealing layer, and being formed of a material capable of withstanding cryogenic temperatures; and (ii) a tubular axial strengthening sheath in the form of a generally tubular braid disposed around the tubular body and configured to elongate and to reduce in diameter when subjected to an axial tension, wherein the inner tubular structure has insulation properties sufficient to protect the composite pipe from the low temperature of cryogenic fluid flowing within the inner tubular structure, characterised in that the pipeline further comprises: a composite pipe surrounding the inner tubular structure and suitable for conveying cryogenic fluids, the pipe being formed of a composite material, the composite material arranged such that the pipe has an effective longitudinal coefficient of thermal expansion ("CTE") from -10×10 -6 °K -1 to zero, wherein the composite material is an aramid fiber that exhibits a negative longitudinal CTE and a positive transverse CTE. (i) a tubular body disposed between inner and outer gripping members (22, 24), the tubular body including a sealing layer, and being formed of a material capable of withstanding cryogenic temperatures; and (ii) a tubular axial strengthening sheath in the form of a generally tubular braid disposed around the tubular body and configured to elongate and to reduce in diameter when subjected to an axial tension, a composite pipe surrounding the inner tubular structure and suitable for conveying cryogenic fluids, the pipe being formed of a composite material, the composite material arranged such that the pipe has an effective longitudinal coefficient of thermal expansion ("CTE") from -10×10 -6 °K -1 to zero, wherein the composite material is an aramid fiber that exhibits a negative longitudinal CTE and a positive transverse CTE.
A process for obtaining a stable precipitate enriched in phycobiliproteins, comprising at least one precipitation step consisting of the addition of salicylic acid to an aqueous extract of phycobiliproteins, said precipitate having a phycobiliprotein content at least equal to 50% of the amount initially contained in said aqueous extract, and having a clarity at least equal to 70%.
A method for operating a PLC modem device (10, 20, 21, 22) in a communication arrangement, comprising: - monitoring a presence of interferences caused by operating radio services, and - in the case that interferences from said operating radio services are detected, performing power line communication on communication channels (31, 32, CC) or communication spectra where said interferences from radio services are not detected, wherein - a power back off process is performed in order to avoid interference with other PLC devices by reducing transmission power fed or to be fed, wherein in said power back off process transmission power fed or to be fed is reduced and the received signal is monitored and compared with the transmitted signal as long as the transmitted signal is received loss free or essentially loss free, thereby reducing the transmission power to a minimum value or range which is still sufficient and/or appropriate for enabling and/or maintaining power line communication, wherein said power back off process is performed on a distinct channel (31, 32, CC) and/or carrier if an actual signal to noise ratio of said given channel (31, 32, CC) and/or carrier is better than a signal to noise ratio necessary for an actual bit loading in said given channel (31, 32, CC) and/or carrier, - thereby simultaneously avoiding interferences to and from other PLC modem devices and radio services. - monitoring a presence of interferences caused by operating radio services, and - in the case that interferences from said operating radio services are detected, performing power line communication on communication channels (31, 32, CC) or communication spectra where said interferences from radio services are not detected, wherein - a power back off process is performed in order to avoid interference with other PLC devices by reducing transmission power fed or to be fed, wherein in said power back off process transmission power fed or to be fed is reduced and the received signal is monitored and compared with the transmitted signal as long as the transmitted signal is received loss free or essentially loss free, thereby reducing the transmission power to a minimum value or range which is still sufficient and/or appropriate for enabling and/or maintaining power line communication, wherein said power back off process is performed on a distinct channel (31, 32, CC) and/or carrier if an actual signal to noise ratio of said given channel (31, 32, CC) and/or carrier is better than a signal to noise ratio necessary for an actual bit loading in said given channel (31, 32, CC) and/or carrier, - thereby simultaneously avoiding interferences to and from other PLC modem devices and radio services.
Method for providing external control services in a network, wherein the network comprises a first application component, a second application component and a switching component, wherein a first and second control component (21, 22) is attached to the network, wherein the method comprises the following process steps: - receiving first control request information sent by the first application component to the switching component, - receiving second control request information sent by the second application component to the switching component, - interrogating the first or second control component (21, 22) for first control response information depending on the received first control request information, - interrogating the first or second control component (21, 22) for second control response information depending on the received second control request information, - transmitting the interrogated first control response information to the first application component and the second control response information to the second application component, wherein communication of the switching component with the first and second application component (11, 12) takes place respectively via an interface of the switching component of a first interface style and wherein communication of the switching component with the first and second control component (21, 22) takes place respectively via a second interface of the switching component of a second interface style. - receiving first control request information sent by the first application component to the switching component, - receiving second control request information sent by the second application component to the switching component, - interrogating the first or second control component (21, 22) for first control response information depending on the received first control request information, - interrogating the first or second control component (21, 22) for second control response information depending on the received second control request information, - transmitting the interrogated first control response information to the first application component and the second control response information to the second application component,
A fused heterocyclic compound represented by formula: wherein R 1 represents a hydrogen atom, a C1-C3 alkyl group which may be optionally substituted with one or more halogen atom(s), a halogen atom, a C1-C3 alkoxy group, a C2-C4 alkoxycarbonyl group, a S m R 2, a NR 3 R 4, a nitro group or a cyano group; R 2 represents a C1-C3 alkyl group; R 4 and R 4 are the same or different from each other, and each represents a hydrogen atom or a C1-C3 alkyl group; n is 0, 1 or 2; and m is 0, 1 or 2] or N-oxide thereof. R 1 represents a hydrogen atom, a C1-C3 alkyl group which may be optionally substituted with one or more halogen atom(s), a halogen atom, a C1-C3 alkoxy group, a C2-C4 alkoxycarbonyl group, a S m R 2, a NR 3 R 4, a nitro group or a cyano group; R 2 represents a C1-C3 alkyl group; R 4 and R 4 are the same or different from each other, and each represents a hydrogen atom or a C1-C3 alkyl group; n is 0, 1 or 2; and m is 0, 1 or 2]
Portable power tool, in particular a hammer drill, having a drive unit and having a switching device, which has an axially displaceable intermediate shaft, a percussion mechanism arrangement, a drive torque transmission means and a gear wheel unit arranged on the intermediate shaft, and which is intended to switch between different types of drive and/or drive speeds of a tool, and which has a coupling means configured separately from the gear wheel unit, the intermediate shaft being couplable via said coupling means to the drive torque transmission means, which is connected to an armature shaft of the drive unit in a rotary manner during operation and is intended to drive the percussion mechanism arrangement and/or the intermediate shaft, characterized in that the intermediate shaft and the gear wheel unit are movable in an axial direction (18, 98) relative to one another, wherein the gear wheel unit has at least two gear wheels (20, 22) that are rotatable independently of one another.
An arrangement of a shield conductor and an exhaust pipe of a vehicle (10, 50), the shield conductor comprising: an electrical wire; and a metal pipe that encloses the electrical wire, the pipe being routed so that at least a portion of the pipe passes in proximity to the exhaust pipe, characterized in that the section of the outer peripheral surface of the metal pipe passing in proximity to the exhaust pipe other than the section facing the exhaust pipe is covered with a resin layer of a color other than a metallic color, and the section of the pipe passing in proximity to the exhaust pipe that faces the exhaust pipe does not have the resin layer and a metallic-colored outer peripheral surface of the section is exposed. an electrical wire; and a metal pipe that encloses the electrical wire, the pipe being routed so that at least a portion of the pipe passes in proximity to the exhaust pipe,
Adhesive dressing assembly comprising a dressing comprised of an adhesive disposed on a backing layer, and the dressing assembly further comprises at least one supportive release liner covering the major part of the adhesive surface of the dressing, wherein - the rigidity of the release liner is higher than the rigidity of the dressing so as to provide support to the dressing during application, - characterised in that - the backing layer has a thickness of less than 300 μm, and the adhesive layer has a thickness between 60 and 300 μm, - the modulus of elasticity of the release liner is approx. 10 times higher than the modulus of elasticity for the dressing tested according to ISO 527-3, and - the peel-value is such that the release liner is able to be easily pushed off the adhesive - the dressing is highly stretchable and deformable, and - wherein the peel value between the release liner and the adhesive of the dressing is between 0.02 N/mm and 1.63 N/mm, when the testing is done at an angle of 180 and at a test-speed of 400 mm/min. - the rigidity of the release liner is higher than the rigidity of the dressing so as to provide support to the dressing during application, - characterised in that - the backing layer has a thickness of less than 300 μm, and the adhesive layer has a thickness between 60 and 300 μm, - the modulus of elasticity of the release liner is approx. 10 times higher than the modulus of elasticity for the dressing tested according to ISO 527-3, and - the peel-value is such that the release liner is able to be easily pushed off the adhesive - the dressing is highly stretchable and deformable, and - wherein the peel value between the release liner and the adhesive of the dressing is between 0.02 N/mm and 1.63 N/mm, when the testing is done at an angle of 180 and at a test-speed of 400 mm/min.