mhurhangee/ep-ind-claims huggingface dataset:
A lubricant composition, comprising: 20 to 90% by weight of a synthetic base oil; and 10 to 80% by weight of a comb polymer, comprising the following monomers: (a) 20 to 35% by weight of esters of (meth)acrylic acid and a hydroxylated hydrogenated polybutadiene; and (b) 0.2% by weight to 15% by weight of styrene, (c) 0.2 to 20% by weight of alkyl methacrylates having 12 to 15 carbon atoms in the alkyl chain, (d) 50 to 70% by weight of alkyl (meth)acrylates having 1 to 4 carbon atoms in the alkyl chain, based on the total weight of the comb polymer, wherein the amounts of components and are based on the total weight of the lubricant composition. 20 to 90% by weight of a synthetic base oil; and 10 to 80% by weight of a comb polymer, comprising the following monomers: (a) 20 to 35% by weight of esters of (meth)acrylic acid and a hydroxylated hydrogenated polybutadiene; and (b) 0.2% by weight to 15% by weight of styrene, (c) 0.2 to 20% by weight of alkyl methacrylates having 12 to 15 carbon atoms in the alkyl chain, (d) 50 to 70% by weight of alkyl (meth)acrylates having 1 to 4 carbon atoms in the alkyl chain, based on the total weight of the comb polymer, (a) 20 to 35% by weight of esters of (meth)acrylic acid and a hydroxylated hydrogenated polybutadiene; and (b) 0.2% by weight to 15% by weight of styrene, (c) 0.2 to 20% by weight of alkyl methacrylates having 12 to 15 carbon atoms in the alkyl chain, (d) 50 to 70% by weight of alkyl (meth)acrylates having 1 to 4 carbon atoms in the alkyl chain,
A device which is suitable for the production of filament materials by extrusion of a fluid material and solidification of the fluid material, with an extrusion head having a plurality of extrusion openings, a collecting bath for receiving extruded fluid filaments from the extrusion openings, a gas gap between the extrusion openings and the collecting bath, whereupon a gas treatment zone is formed for extruded fluid material, and a gas flow device (3, 6) for producing a flow of gas in the gas gap, characterized in that at least one gas flow baffle is provided in the lateral direction of the gas treatment zone and in the direction of the gas flow.
A video game play system having a handheld controller including a sensor, the sensor configured to sense the position, orientation and/or motion of the controller, the video game play system including a video game processing unit configured to communicate with the controller, the system further comprising a sports ball including a slot dimensioned therein for retaining the handheld controller, wherein the handheld controller retained in the sports ball is operable to sense the video game player simulating a throw of the sports ball through using the sensor of the controller to sense a pitch, a force, and a horizontal angle of the throw, wherein the video game processing unit receives from the handheld controller the pitch, force, and horizontal angle of the throw, the video game processing unit being configured to calculate a distance of the sports ball and a direction of the sports ball which is being thrown, characterized by the sports ball further including a strap for the player to tuck his or her fingers under such that the sports ball is retained in the video game player's hand during simulating a throw of the sports ball, and the slot including a cutaway window that exposes buttons or other controls on the handheld controller for manipulation by said hand.
Motorisation unit for shutters, to be fixed underneath a lintel and comprising at least one module containing an electric motor and a housing, the motorisation unit comprising at least one corner bracket having: - a first wing arranged to abut against a vertical upright of an aperture surmounted by the lintel, - a second wing perpendicular to the first wing, - at least one tab which is perpendicular to the first and second wings and which defines at least one surface of abutment against the lintel and a cut-out for partially receiving an end of the housing, characterised in that a profile of the tab has, following on from the surface of abutment against the lintel, a contact surface parallel to that surface and extending to a second distance from the second wing, measured perpendicularly to the second wing, which is less than a first distance between the surface of abutment and the second wing, measured perpendicularly to the second wing, those two surfaces (210, 212) being connected to one another by a stop which is perpendicular to the plane of the second wing. - a first wing arranged to abut against a vertical upright of an aperture surmounted by the lintel, - a second wing perpendicular to the first wing, - at least one tab which is perpendicular to the first and second wings and which defines at least one surface of abutment against the lintel and a cut-out for partially receiving an end of the housing,
A passive tag sized for introduction into a target tissue region within a patient's body, comprising: an energy converter for transforming light pulses striking the tag into electrical energy; a switch coupled to the energy converter such that the light pulses cause the switch to open and close; and one or more elongate core members coupled to the switch to provide an antenna, the switch configured to open and close to modulate signals reflected by the antenna back to a source of the signals, wherein the energy converter comprises one or more photosensitive diodes configured to convert light pulses received from a light source to generate a voltage to open and close the switch. an energy converter for transforming light pulses striking the tag into electrical energy; a switch coupled to the energy converter such that the light pulses cause the switch to open and close; and one or more elongate core members coupled to the switch to provide an antenna, the switch configured to open and close to modulate signals reflected by the antenna back to a source of the signals, wherein the energy converter comprises one or more photosensitive diodes configured to convert light pulses received from a light source to generate a voltage to open and close the switch.
A catalyst composition for the steam reforming of methane which comprises as component a) mixed oxides of nickel, aluminum and zirconium and as component b) a further oxygen-comprising aluminum compound selected from the group consisting of aluminum hydroxide [Al 3], aluminum oxide hydroxide [AlO] and aluminum oxide (Al 2 O 3), wherein the catalyst composition is a physical mixture of the components a) and b).
A method of making a formed lens (90, 112, 120), the method comprising: obtaining a lens blank (42, 44, 48) comprising, in superposed relation, a linear polarizer layer laminated together with a plurality of polymeric layers (14, 16, 18), the linear polarizer layer having a polarization axis; placing the lens blank on a supporting flexible member that is in an initial undeformed state, heating and applying pressure to the lens blank (42, 44, 48) by pressing the lens blank (42, 44, 48) between said flexible member and a convex rigid member that is heated to a forming temperature, thereby causing the flexible member to deform and assume the shape of the convex rigid member; maintaining the pressure and the forming temperature for a time sufficient to allow the lens blank (42, 44, 48) to conform to the shape of the convex rigid member and the flexible member; reducing the temperature to a reduced temperature while maintaining the pressure for allowing the lens blank (42, 44, 48) to become a rigid lens (90, 112, 120) having a convex side and a concave side; removing the formed lens (90, 112, 120) from the convex rigid member and the flexible member. obtaining a lens blank (42, 44, 48) comprising, in superposed relation, a linear polarizer layer laminated together with a plurality of polymeric layers (14, 16, 18), the linear polarizer layer having a polarization axis; placing the lens blank on a supporting flexible member that is in an initial undeformed state, heating and applying pressure to the lens blank (42, 44, 48) by pressing the lens blank (42, 44, 48) between said flexible member and a convex rigid member that is heated to a forming temperature, thereby causing the flexible member to deform and assume the shape of the convex rigid member; maintaining the pressure and the forming temperature for a time sufficient to allow the lens blank (42, 44, 48) to conform to the shape of the convex rigid member and the flexible member; reducing the temperature to a reduced temperature while maintaining the pressure for allowing the lens blank (42, 44, 48) to become a rigid lens (90, 112, 120) having a convex side and a concave side; removing the formed lens (90, 112, 120) from the convex rigid member and the flexible member.
A gum composition comprising: (a) a liquid-fill composition; and (b) a gum region surrounding said liquid-fill composition, said gum region comprising a gum base, maltitol in the amount of 40% to 60% by weight of said gum region and a delivery system comprising at least one modified release component, wherein the delivery system provides a tensile strength of at least 44.82 MPa (6,500 psi). (a) a liquid-fill composition; and (b) a gum region surrounding said liquid-fill composition, said gum region comprising a gum base, maltitol in the amount of 40% to 60% by weight of said gum region and a delivery system comprising at least one modified release component, wherein the delivery system provides a tensile strength of at least 44.82 MPa (6,500 psi).
A method of driving a joint device comprising a drive unit and a differential speed reducer provided between a first link and a second link, the joint device controlling drive of the first link and the second link as joints, wherein the differential speed reducer comprises an internal gear, an intermediate gear, and an external gear, and the drive unit comprises a first motor and a second motor, the method comprising: fixedly connecting the first motor and the second motor to the first link; coupling an output shaft of the first motor to one of the internal gear, the intermediate gear, and the external gear of the differential speed reducer; coupling an output shaft of the second motor to one of the internal gear, the intermediate gear, and the external gear of the differential speed reducer which is different from the gear coupled to the output shaft of the first motor; and coupling to the second link one of gears of the internal gear, the intermediate gear, and the external gear of the differential speed reducer which is different from the gear coupled to the output shaft of the first motor and the gear coupled to the output shaft of the second motor; and rotating both of the first motor and the second motor at a rotational speed larger than zero, and stopping the second link by differentiating the rotational speed of the first motor and that of the second motor when the first link and the second link are relatively stopped to keep a joint angle fixed. fixedly connecting the first motor and the second motor to the first link; coupling an output shaft of the first motor to one of the internal gear, the intermediate gear, and the external gear of the differential speed reducer; coupling an output shaft of the second motor to one of the internal gear, the intermediate gear, and the external gear of the differential speed reducer which is different from the gear coupled to the output shaft of the first motor; and coupling to the second link one of gears of the internal gear, the intermediate gear, and the external gear of the differential speed reducer which is different from the gear coupled to the output shaft of the first motor and the gear coupled to the output shaft of the second motor; and rotating both of the first motor and the second motor at a rotational speed larger than zero, and stopping the second link by differentiating the rotational speed of the first motor and that of the second motor when the first link and the second link are relatively stopped to keep a joint angle fixed.
A method comprising: transferring microLED chips from an epitaxy wafer to a first coupon substrate, the first coupon substrate having a first, soft adhesive layer that temporarily holds the microLED chips; transferring via one or more transfer substrates, a subset of the microLED chips from the first coupon substrate to a second coupon substrate having a second, soft adhesive layer that temporarily holds the subset of microLED chips; and transferring a pattern of microLED chips from another substrate to the second coupon substrate via the one or more transfer substrates to fill vacancies in the subset of microLED chips, wherein the first and second transfer substrates have a plurality of transfer elements, each transfer element having lateral dimensions from one or more micrometers to several hundreds of micrometers to pick up micro-objects of like dimensions, wherein the plurality of transfer elements are individually actuated to simultaneously hold and release pluralities of the microLED chips. transferring microLED chips from an epitaxy wafer to a first coupon substrate, the first coupon substrate having a first, soft adhesive layer that temporarily holds the microLED chips; transferring via one or more transfer substrates, a subset of the microLED chips from the first coupon substrate to a second coupon substrate having a second, soft adhesive layer that temporarily holds the subset of microLED chips; and transferring a pattern of microLED chips from another substrate to the second coupon substrate via the one or more transfer substrates to fill vacancies in the subset of microLED chips, wherein the first and second transfer substrates have a plurality of transfer elements, each transfer element having lateral dimensions from one or more micrometers to several hundreds of micrometers to pick up micro-objects of like dimensions, wherein the plurality of transfer elements are individually actuated to simultaneously hold and release pluralities of the microLED chips.
A system for reducing SO 2 emissions, the system comprising: a hydrogenation reactor configured to receive a Claus tail gas, and convert at least a portion of SO 2 in the Claus tail gas to H 2 S to produce a hydrogenated Claus tail gas stream, wherein the Claus tail gas comprises the SO 2, COS, CO 2 and water; a tail gas cooler fluidly connected to the hydrogenation reactor and configured to cool the hydrogenated Claus tail gas stream to produce a cooled hydrogenated tail gas; a contact condenser comprising an alkaline solution, wherein the contact condenser is configured to receive the cooled hydrogenated tail gas and produce a first intermediate treated tail gas stream; wherein the contact condenser comprises an aqueous solution of a base configured to remove at least a portion of the CO 2 in the cooled hydrogenated tail gas; a hydrolysis reactor that is configured to receive the first intermediate treated tail gas stream, and convert at least a portion of COS in the first intermediate treated tail gas stream to H 2 S to produce a second intermediate treated tail gas stream; and an absorber comprising an amine-based solvent and configured to receive the second intermediate treated tail gas stream, wherein the tail gas cooler is interposed between the hydrogenation reactor and the contact condenser. a hydrogenation reactor configured to receive a Claus tail gas, and convert at least a portion of SO 2 in the Claus tail gas to H 2 S to produce a hydrogenated Claus tail gas stream, wherein the Claus tail gas comprises the SO 2, COS, CO 2 and water; a tail gas cooler fluidly connected to the hydrogenation reactor and configured to cool the hydrogenated Claus tail gas stream to produce a cooled hydrogenated tail gas; a contact condenser comprising an alkaline solution, wherein the contact condenser is configured to receive the cooled hydrogenated tail gas and produce a first intermediate treated tail gas stream; wherein the contact condenser comprises an aqueous solution of a base configured to remove at least a portion of the CO 2 in the cooled hydrogenated tail gas; a hydrolysis reactor that is configured to receive the first intermediate treated tail gas stream, and convert at least a portion of COS in the first intermediate treated tail gas stream to H 2 S to produce a second intermediate treated tail gas stream; and an absorber comprising an amine-based solvent and configured to receive the second intermediate treated tail gas stream, wherein the tail gas cooler is interposed between the hydrogenation reactor and the contact condenser.
An intervertebral implant comprising: - a body portion comprising an anterior end, a posterior end, a first side portion connecting the anterior end and the posterior end, and a second side portion connecting the anterior end and the posterior end, the anterior end, posterior end, first side portion and second side portion defining a central cavity; - an expandable member comprising a fixed end, an expandable end, a first arm, and a second arm, the first arm and the second arm being connected at the fixed end, the first arm and the second arm being moveable with respect to one another at the expandable end, wherein at least a portion of the expandable member is received within the central cavity of the body portion; - a ramped translation member having at least one expansion portion (664, 666), at least a portion of the translation member is received within the central opening, at least a portion of the ramped translation member being received within a channel defined between the first arm and the second arm of the expandable member; and - an actuation member in engagement with the ramped translation member. - a body portion comprising an anterior end, a posterior end, a first side portion connecting the anterior end and the posterior end, and a second side portion connecting the anterior end and the posterior end, the anterior end, posterior end, first side portion and second side portion defining a central cavity; - an expandable member comprising a fixed end, an expandable end, a first arm, and a second arm, the first arm and the second arm being connected at the fixed end, the first arm and the second arm being moveable with respect to one another at the expandable end, wherein at least a portion of the expandable member is received within the central cavity of the body portion; - a ramped translation member having at least one expansion portion (664, 666), at least a portion of the translation member is received within the central opening, at least a portion of the ramped translation member being received within a channel defined between the first arm and the second arm of the expandable member; and - an actuation member in engagement with the ramped translation member.
A flexible electrical circuit having connection between electrically conductive structure elements, comprising: - at least one lacquer layer, - at least one electrical conductor track disposed above the at least one lacquer layer, - at least one electrical component and at least one electrically conductive contact layer for contacting the at least one electrical component, characterized by - a conductive cement layer and a primer layer, - wherein the primer layer is disposed on the at least one lacquer layer, - wherein the conductive cement layer is disposed underneath the at least one electrically conductive contact layer and above the primer layer. - at least one lacquer layer, - at least one electrical conductor track disposed above the at least one lacquer layer, - at least one electrical component and at least one electrically conductive contact layer for contacting the at least one electrical component, - a conductive cement layer and a primer layer, - wherein the primer layer is disposed on the at least one lacquer layer, - wherein the conductive cement layer is disposed underneath the at least one electrically conductive contact layer and above the primer layer.
Cleaning method for jet engines, comprising the following steps: - A) identify the natural frequency of a combustor chamber liner of the jet engine to be cleaned, - C) reproduce the natural frequency of the combustor by means of the cleaning device, and characterized in that the method further comprises following step - B) dispose a cleaning device that comprises a vibration generator unit that is fixed to a main body, wherein the main body is operatively connectable with a first end of a vibration transmitter element having an elongated configuration, the vibration transmitter element having likewise a second end (3"), opposite to the first end, the second end (3") being configured to contact an inner side of the combustor of the jet engine, and the vibration transmitter element being able to be introduced across an engine injector hole and a combustor injector hole (A') of the jet engine, wherein step B) comprises disposing said cleaning device with the second end (3") of the vibration transmitter element in contact with the inner side of the combustor. - A) identify the natural frequency of a combustor chamber liner of the jet engine to be cleaned, - C) reproduce the natural frequency of the combustor by means of the cleaning device, and characterized in that the method further comprises following step - B) dispose a cleaning device that comprises a vibration generator unit that is fixed to a main body, wherein the main body is operatively connectable with a first end of a vibration transmitter element having an elongated configuration, the vibration transmitter element having likewise a second end (3"), opposite to the first end, the second end (3") being configured to contact an inner side of the combustor of the jet engine, and the vibration transmitter element being able to be introduced across an engine injector hole and a combustor injector hole (A') of the jet engine, wherein step B) comprises disposing said cleaning device with the second end (3") of the vibration transmitter element in contact with the inner side of the combustor.
A processing method for processing a component formed by an ALM method using a y'-strengthened superalloy having a γ' solvus temperature, the processing method comprising: 1) surface finishing of the component by blasting with a blasting media at a pressure below 0.62 MPa (90 psi) and/or at an angle less than 85 degrees to the surface of the component; 2) hot isostatic pressing of the component at a temperature 10-70°C below the γ' solvus temperature; 3) solution heat treating the component at a temperature at or above the γ' solvus temperature but below the solidus temperature; 4) primary aging of the component at a primary aging temperature between 950-1120°C for a first aging time; and 5) secondary aging of the component at a secondary aging temperature between 750-980°C for a second aging time, wherein the primary aging temperature is higher than the secondary aging temperature. 1) surface finishing of the component by blasting with a blasting media at a pressure below 0.62 MPa (90 psi) and/or at an angle less than 85 degrees to the surface of the component; 2) hot isostatic pressing of the component at a temperature 10-70°C below the γ' solvus temperature; 3) solution heat treating the component at a temperature at or above the γ' solvus temperature but below the solidus temperature; 4) primary aging of the component at a primary aging temperature between 950-1120°C for a first aging time; and 5) secondary aging of the component at a secondary aging temperature between 750-980°C for a second aging time, wherein the primary aging temperature is higher than the secondary aging temperature.