mhurhangee/patent-ind-claim-en huggingface dataset:
A detergent composition for the non-oxidative laundering of fabric stains, the composition comprising: (a) from 0.1 to 10% (by weight based on the total weight of the composition) of one or more deferoxamines ; and (b) from 15 to 80% (by weight based on the total weight of the composition) of one or more detersive surfactants; in which the one or more deferoxamines correspond to the general formula (I): in which m is 3, 4 or 5; n and o are each independently 4 or 5; p is 0 or 1; R 1 is a monovalent group selected from H- and CH 3 CO- or together with R 2 forms a divalent -CO(CH 2 ) 2 CO- group; and R 2 is a monovalent group selected from -H, - COCH 3 and -CO(CH 2 ) 2 COOH; or together with R 1 forms a divalent -CO(CH 2 ) 2 CO-group; and/or an acid addition salt thereof selected from hydrochlorides, sulfates, phosphates, nitrates, methanesulfonates (mesylates), ethanesulfonates, ammonium salts and alkali metal salts; in which the composition contains from 0 to 0.01% (by weight based on the total weight of the composition) of transition metal ions selected from Fe (III), Co (II), Co (III), Mn (II), Mn (III), Ce (III), Ce (IV), Zn (II) and Bi (III) and mixtures thereof; and in which the composition contains from 0 to 0.01% (by weight based on the total weight of the composition) of oxidising agents selected from halogen-based bleaches, oxygen-based bleaches and mixtures thereof. (a) from 0.1 to 10% (by weight based on the total weight of the composition) of one or more deferoxamines ; and (b) from 15 to 80% (by weight based on the total weight of the composition) of one or more detersive surfactants; in which m is 3, 4 or 5; n and o are each independently 4 or 5; p is 0 or 1; R 1 is a monovalent group selected from H- and CH 3 CO- or together with R 2 forms a divalent -CO(CH 2 ) 2 CO- group; and R 2 is a monovalent group selected from -H, - COCH 3 and -CO(CH 2 ) 2 COOH; or together with R 1 forms a divalent -CO(CH 2 ) 2 CO-group; and/or an acid addition salt thereof selected from hydrochlorides, sulfates, phosphates, nitrates, methanesulfonates (mesylates), ethanesulfonates, ammonium salts and alkali metal salts; in which the composition contains from 0 to 0.01% (by weight based on the total weight of the composition) of transition metal ions selected from Fe (III), Co (II), Co (III), Mn (II), Mn (III), Ce (III), Ce (IV), Zn (II) and Bi (III) and mixtures thereof; and in which the composition contains from 0 to 0.01% (by weight based on the total weight of the composition) of oxidising agents selected from halogen-based bleaches, oxygen-based bleaches and mixtures thereof.
Method for joining two components having different stiffnesses (E1, E2) to form a holding device for a wafer, comprising: bonding a plate-shaped body onto the component having greater stiffness (E1), the bonding being performed using an adhesive, correcting deformations produced by the bonding on the plate-shaped body , and joining the component having the lower stiffness (E2) to the plate-shaped body without using a joining agent. bonding a plate-shaped body onto the component having greater stiffness (E1), the bonding being performed using an adhesive, correcting deformations produced by the bonding on the plate-shaped body , and joining the component having the lower stiffness (E2) to the plate-shaped body without using a joining agent.
A recyclable film, which is recyclable into a polyethylene-based stream or a polypropylene based stream, comprising: a) a base film comprising: i) a first layer comprising a polyester, and ii) a second layer comprising a polyester compatibilizer, and b) a sealing layer connected to the base film and located on an exterior surface of the recyclable film, wherein the base film is oriented, and the sealing layer is not oriented, and wherein the base film has a free shrink value of less than 10% in both the machine direction and the transverse direction when tested according to ASTM D2732 using bath temperature of 90C, wherein a mass ratio of the polyester compatibilizer to the polyester is from 1:6 to 1:1. a) a base film comprising: i) a first layer comprising a polyester, and ii) a second layer comprising a polyester compatibilizer, and i) a first layer comprising a polyester, and ii) a second layer comprising a polyester compatibilizer, and b) a sealing layer connected to the base film and located on an exterior surface of the recyclable film, wherein the base film is oriented, and the sealing layer is not oriented, and wherein the base film has a free shrink value of less than 10% in both the machine direction and the transverse direction when tested according to ASTM D2732 using bath temperature of 90C, wherein a mass ratio of the polyester compatibilizer to the polyester is from 1:6 to 1:1.
A nitride semiconductor laser diode comprising: a substrate ; an n-side nitride semiconductor layer containing an n-type impurity and disposed on the substrate; an active layer having a light emitting layer including In x Al y Ga 1- x - y N (0<x<1, 0≤y<1, and 0<x+y<1) and disposed on the n-side nitride semiconductor layer; and a p-side nitride semiconductor layer containing a p-type impurity and disposed on the active layer; wherein the lasing wavelength of the nitride semiconductor laser diode is 500 nm or greater, dislocations originated in the active layer penetrate through the p-side nitride semiconductor layer with a dislocation density of 1×10 6 cm -2 or greater, and a concentration distribution of the p-type impurity in a depth direction from the light emitting layer toward the surface of the p-side nitride semiconductor layer has a local maximum with the concentration of the p-type impurity of 5×10 18 cm -3 or greater in a range within 300 nm from the top surface of the light emitting layer which is closest to the p-side nitride semiconductor layer, and after passing the local maximum, the concentration of the p-type impurity is not less than 6×10 17 cm -3 in the range within 300 nm. a substrate ; an n-side nitride semiconductor layer containing an n-type impurity and disposed on the substrate; an active layer having a light emitting layer including In x Al y Ga 1- x - y N (0<x<1, 0≤y<1, and 0<x+y<1) and disposed on the n-side nitride semiconductor layer; and a p-side nitride semiconductor layer containing a p-type impurity and disposed on the active layer; wherein the lasing wavelength of the nitride semiconductor laser diode is 500 nm or greater, dislocations originated in the active layer penetrate through the p-side nitride semiconductor layer with a dislocation density of 1×10 6 cm -2 or greater, and a concentration distribution of the p-type impurity in a depth direction from the light emitting layer toward the surface of the p-side nitride semiconductor layer has a local maximum with the concentration of the p-type impurity of 5×10 18 cm -3 or greater in a range within 300 nm from the top surface of the light emitting layer which is closest to the p-side nitride semiconductor layer, and after passing the local maximum, the concentration of the p-type impurity is not less than 6×10 17 cm -3 in the range within 300 nm.
A composition comprising recombinant FSH and chlorocresol, wherein the recombinant FSH has a human glycosylation pattern.
An aircraft landing gear assembly for supporting an aircraft, the landing gear assembly comprising: a first structural subassembly which defines a cavity and an access port for providing access to the cavity from the exterior of the first subassembly while, in use, the landing gear assembly is supporting the aircraft on the ground; and one or more health and usage monitoring system (HUMS) components removably coupled to the first structural subassembly within the cavity, wherein said one or more HUMS components include a power supply, a printed circuit board including a data processor, a memory, a data readout device and one or more sensors. a first structural subassembly which defines a cavity and an access port for providing access to the cavity from the exterior of the first subassembly while, in use, the landing gear assembly is supporting the aircraft on the ground; and one or more health and usage monitoring system (HUMS) components removably coupled to the first structural subassembly within the cavity, wherein said one or more HUMS components include a power supply, a printed circuit board including a data processor, a memory, a data readout device and one or more sensors.
Apparatus for producing ventral images of aquatic organisms, in particular of amphibians, more particularly of newts, said apparatus comprising a) a hollow conduct with a first opening and a second opening , said first and second openings being opposed from each other, b) a watertight container , wherein said hollow conduct and said watertight container are separated by a wall , said wall transmitting the wavelengths comprised between 390 nm and 1.4 μm, wherein said apparatus, except for said wall , is opaque to the wavelengths comprised between 390 nm and 1.4 μm, wherein said watertight container comprises an underwater video camera oriented towards said wall , wherein said watertight container is positioned below said hollow conduct , said watertight container being filled with clean water. a) a hollow conduct with a first opening and a second opening , said first and second openings being opposed from each other, b) a watertight container , wherein said hollow conduct and said watertight container are separated by a wall , said wall transmitting the wavelengths comprised between 390 nm and 1.4 μm, wherein said apparatus, except for said wall , is opaque to the wavelengths comprised between 390 nm and 1.4 μm, wherein said watertight container comprises an underwater video camera oriented towards said wall , wherein said watertight container is positioned below said hollow conduct , said watertight container being filled with clean water.
A method for manufacturing graphene using a high-pressure homogenizer comprising a channel module comprising a microchannel through which an object for homogenization passes, wherein the microchannel is provided with a first flow channel and a second flow channel in order along the direction through which the object passes, the first flow channel is provided with a plurality of first baffles disposed so as to partition the microchannel into a plurality of spaces, the second flow channel is provided with a plurality of second baffles disposed so as to partition the microchannel into a plurality of spaces, and at least one first baffle is provided to be positioned between two adjacent second baffles , the method comprises the steps of: supplying a solution containing graphite to the channel module ; and applying a pressure of 100 to 3000 bar to the channel module to pass the solution containing graphite. wherein the microchannel is provided with a first flow channel and a second flow channel in order along the direction through which the object passes, the first flow channel is provided with a plurality of first baffles disposed so as to partition the microchannel into a plurality of spaces, the second flow channel is provided with a plurality of second baffles disposed so as to partition the microchannel into a plurality of spaces, and at least one first baffle is provided to be positioned between two adjacent second baffles , the method comprises the steps of: supplying a solution containing graphite to the channel module ; and applying a pressure of 100 to 3000 bar to the channel module to pass the solution containing graphite. supplying a solution containing graphite to the channel module ; and applying a pressure of 100 to 3000 bar to the channel module to pass the solution containing graphite.
An orifice pack (24; 24') for delivering pressurized air to a compressor bleed valve , the orifice pack (24; 24') comprising: a body defining a diffusion chamber extending along a central axis, the diffusion chamber having an inlet fluidly connectable to a source of pressurized air; a vent removably mounted to the body , the vent having a tapering passage , the diffusion chamber and the tapering passage aligned longitudinally and sequentially along the central axis when the vent is mounted to the body , the tapering passage converging towards a first outlet passage in an axial direction away from the diffusion chamber for venting a first portion (F1) of the pressurized air from the diffusion chamber ; and a second outlet passage branching off from the diffusion chamber at an axial location between the inlet and the tapering passage , the second outlet passage fluidly connectable to the compressor bleed valve for directing a second portion (F2) of the pressurized air from the diffusion chamber to the compressor bleed valve ; characterized in that the tapering passage has a cross-sectional area at an inlet end thereof that is at least equal to that of the diffusion chamber so as to avoid the presence of a flow constriction at an interface (D) between the diffusion chamber and the tapering passage . a body defining a diffusion chamber extending along a central axis, the diffusion chamber having an inlet fluidly connectable to a source of pressurized air; a vent removably mounted to the body , the vent having a tapering passage , the diffusion chamber and the tapering passage aligned longitudinally and sequentially along the central axis when the vent is mounted to the body , the tapering passage converging towards a first outlet passage in an axial direction away from the diffusion chamber for venting a first portion (F1) of the pressurized air from the diffusion chamber ; and a second outlet passage branching off from the diffusion chamber at an axial location between the inlet and the tapering passage , the second outlet passage fluidly connectable to the compressor bleed valve for directing a second portion (F2) of the pressurized air from the diffusion chamber to the compressor bleed valve ; characterized in that the tapering passage has a cross-sectional area at an inlet end thereof that is at least equal to that of the diffusion chamber so as to avoid the presence of a flow constriction at an interface (D) between the diffusion chamber and the tapering passage .
Method for methanation of gaseous substrates, wherein the following steps are carried out: a) providing a reactor filled with growth bodies carrying immobilized methane-forming microorganisms on the surface of the growth bodies; b) trickling the growth bodies with the methane-forming microorganisms immobilized thereon with a process liquid, c) applying a mixture of gaseous substrates to the reactor, wherein the mixing ratio of the substrates in the gas phase is selected in such a way that the dissolution of the gaseous substrates in the process liquid leads to a stoichiometric ratio of the gaseous substrates dissolved in the process liquid, d) discharging the gas mixture produced from the reactor. a) providing a reactor filled with growth bodies carrying immobilized methane-forming microorganisms on the surface of the growth bodies; b) trickling the growth bodies with the methane-forming microorganisms immobilized thereon with a process liquid, c) applying a mixture of gaseous substrates to the reactor, wherein the mixing ratio of the substrates in the gas phase is selected in such a way that the dissolution of the gaseous substrates in the process liquid leads to a stoichiometric ratio of the gaseous substrates dissolved in the process liquid, d) discharging the gas mixture produced from the reactor.
An apparatus for manufacturing a micro-molded product by using a metal wire, the apparatus comprising: a metal wire feeding part feeding the metal wire by using a magnetorheological fluid, MR fluid, ; and a forming part manufacturing the fed metal wire into a molded-product, wherein the metal wire feeding part includes: a gripper having a flexible dual-cylindrical structure and holding the metal wire through partial solidification of the magnetorheological fluid that is filled in the gripper; an electromagnet provided in a part of sectioned regions of an outer periphery of the gripper; and a moving rail moving the electromagnet along a longitudinal direction of the gripper, wherein the metal wire is moved in a held state in conjunction with movement of the electromagnet, wherein the forming part includes: an extrusion die extruding the metal wire into a shape of a molded product; and a cutting device cutting the extruded wire into a size of a final micro-molded product. a metal wire feeding part feeding the metal wire by using a magnetorheological fluid, MR fluid, ; and a forming part manufacturing the fed metal wire into a molded-product, wherein the metal wire feeding part includes: a gripper having a flexible dual-cylindrical structure and holding the metal wire through partial solidification of the magnetorheological fluid that is filled in the gripper; an electromagnet provided in a part of sectioned regions of an outer periphery of the gripper; and a moving rail moving the electromagnet along a longitudinal direction of the gripper, wherein the metal wire is moved in a held state in conjunction with movement of the electromagnet, wherein the forming part includes: an extrusion die extruding the metal wire into a shape of a molded product; and a cutting device cutting the extruded wire into a size of a final micro-molded product. a gripper having a flexible dual-cylindrical structure and holding the metal wire through partial solidification of the magnetorheological fluid that is filled in the gripper; an electromagnet provided in a part of sectioned regions of an outer periphery of the gripper; and a moving rail moving the electromagnet along a longitudinal direction of the gripper, wherein the metal wire is moved in a held state in conjunction with movement of the electromagnet, wherein the forming part includes: an extrusion die extruding the metal wire into a shape of a molded product; and a cutting device cutting the extruded wire into a size of a final micro-molded product. an extrusion die extruding the metal wire into a shape of a molded product; and a cutting device cutting the extruded wire into a size of a final micro-molded product.
A bass enhancement system (100;400;500;600;700;800) comprising: an adaptive low frequency signal extractor configured to extract low frequency signals from an input audio signal; a nonlinear processor configured to generate from the low frequency signals harmonic signals having inter-modulation controllable to remain below a threshold level; an adaptive adjustor configured to set a gain used with the nonlinear processor for adjusting harmonic signal decay associated with the harmonic signals; a high-pass filter positioned in an output path from the non-linear processor and configured to pass harmonic signals which are reproducible by an output transducer; and an output mixer which sums high-pass filtered input audio signals with psychoacoustic bass corresponding to the harmonic signals generated by the nonlinear processor. an adaptive low frequency signal extractor configured to extract low frequency signals from an input audio signal; a nonlinear processor configured to generate from the low frequency signals harmonic signals having inter-modulation controllable to remain below a threshold level; an adaptive adjustor configured to set a gain used with the nonlinear processor for adjusting harmonic signal decay associated with the harmonic signals; a high-pass filter positioned in an output path from the non-linear processor and configured to pass harmonic signals which are reproducible by an output transducer; and an output mixer which sums high-pass filtered input audio signals with psychoacoustic bass corresponding to the harmonic signals generated by the nonlinear processor.
A power tool comprising: a housing ; and an electric brushless DC (BLDC) motor housed inside the housing and including: a stator including a lamination stack having a plurality of laminations and an end insulator disposed at the end of the lamination stack ; a rotor pivotably arranged inside the stator; and a motor end cap arranged at an end of the stator facing the end insulator ; characterised in that the end cap comprises a plurality of axial posts facing the end insulator , and the end insulator comprises a plurality of peripheral recessed portions and a plurality of radial deflect portions arranged within the peripheral recessed portions , wherein the axial posts of the end cap engage the radial deflect portions , the radial deflect portions applying a springing force against the axial posts in the axial direction to absorb tolerances associated with the stator and the end cap ; wherein the lamination stack and the radial deflect portions define a gap therebetween. a housing ; and an electric brushless DC (BLDC) motor housed inside the housing and including: a stator including a lamination stack having a plurality of laminations and an end insulator disposed at the end of the lamination stack ; a rotor pivotably arranged inside the stator; and a motor end cap arranged at an end of the stator facing the end insulator ; characterised in that the end cap comprises a plurality of axial posts facing the end insulator , and the end insulator comprises a plurality of peripheral recessed portions and a plurality of radial deflect portions arranged within the peripheral recessed portions , wherein the axial posts of the end cap engage the radial deflect portions , the radial deflect portions applying a springing force against the axial posts in the axial direction to absorb tolerances associated with the stator and the end cap ; wherein the lamination stack and the radial deflect portions define a gap therebetween.
A remote control device, comprising: an inertial sensor from which a respective sample value is obtained at each of a plurality of different sample times; one or more manipulable input devices; wireless communication circuitry; and control circuitry for controlling the wireless communication circuitry to communicate information about the inertial sensor and the input devices to an electronic device, wherein the information is communicated at one or more communication intervals using a data format which permits a sample value obtained at one of the plurality of different sample times to be communicated in at least first and second different data transmissions, characterised by based on the communication interval being a first communication interval, communicating consecutive data transmissions including a first data transmission and a second data transmission, the first data transmission including first and second different sample values, and the second data transmission including the second sample value and a third sample value different from both the first and the second sample values. an inertial sensor from which a respective sample value is obtained at each of a plurality of different sample times; one or more manipulable input devices; wireless communication circuitry; and control circuitry for controlling the wireless communication circuitry to communicate information about the inertial sensor and the input devices to an electronic device, wherein the information is communicated at one or more communication intervals using a data format which permits a sample value obtained at one of the plurality of different sample times to be communicated in at least first and second different data transmissions, characterised by based on the communication interval being a first communication interval, communicating consecutive data transmissions including a first data transmission and a second data transmission, the first data transmission including first and second different sample values, and the second data transmission including the second sample value and a third sample value different from both the first and the second sample values.