mhurhangee/ep-ind-claims huggingface dataset:
Telescopic rod, in particular for a handheld device or device system, which has the following: - an outer tube, - an inner tube or a bar which can be shifted along a common longitudinal axis in the outer tube, - a holding backet, which comprises a sleeve for receiving an end region of the outer tube and a clamping ring for surrounding the inner tube or bar, and - a screwcap, which is screwed or can be screwed on the clamping ring of the holding bracket, such that the clamping ring exerts a force on the surrounding region of the inner tube or bar, and the inner tube or the bar is thus fixed or can be fixed on the holding bracket, wherein the end region of the outer tube and the sleeve are connected or can be connected by means of elements (26, 48) complementary to one another, characterised in that the holding bracket with the sleeve and the clamping ring is formed in two parts, wherein the holding bracket is divided into two cylindrical half-shells along the longitudinal axis. - an outer tube, - an inner tube or a bar which can be shifted along a common longitudinal axis in the outer tube, - a holding backet, which comprises a sleeve for receiving an end region of the outer tube and a clamping ring for surrounding the inner tube or bar, and - a screwcap, which is screwed or can be screwed on the clamping ring of the holding bracket, such that the clamping ring exerts a force on the surrounding region of the inner tube or bar, and the inner tube or the bar is thus fixed or can be fixed on the holding bracket, wherein the end region of the outer tube and the sleeve are connected or can be connected by means of elements (26, 48) complementary to one another,
A method for purifying proteins having a tubulin carboxypeptidase activity from a biological extract, comprising: (a) centrifuging the biological extract at a temperature comprised between 0 and 10°C, preferably between 2 and 5°C, more preferably at 2°C; (b) recovering the supernatant from step (a) and proceeding to a first microtubule polymerization cycle by adding GTP and incubating the mixture at a temperature between 35 and 40°C, preferably at 37°C, +/- 2°C, then centrifuging; (c) recovering the pellets of step (b), resuspending in ice-cold buffer, incubating at 4°C +/- 1°C, and proceeding to a second microtubule polymerization cycle by adding GTP and incubating the mixture at 37°C, +/- 2°C, then centrifuging; (d) recovering the pellets of step (c) resuspending in ice-cold buffer, incubating at 4°C +/- 1°C, and proceeding to a third microtubule polymerization cycle by adding GTP and incubating the mixture at 37°C, +/- 2°C, then centrifuging; (e) resuspending the pellets of step (d) and submitting the mixture to an ion exchange chromatography and recovering the flow through; (f) precipitating the proteins of the flow through with a 60% saturated ammonium sulphate solution; (g) submitting the precipitated fraction of step (f) to an hydrophobic chromatography and eluting by gradually decreasing ammonium sulphate concentration up to zero to recover the fraction of proteins with a tubulin carboxypeptidase activity. (a) centrifuging the biological extract at a temperature comprised between 0 and 10°C, preferably between 2 and 5°C, more preferably at 2°C; (b) recovering the supernatant from step (a) and proceeding to a first microtubule polymerization cycle by adding GTP and incubating the mixture at a temperature between 35 and 40°C, preferably at 37°C, +/- 2°C, then centrifuging; (c) recovering the pellets of step (b), resuspending in ice-cold buffer, incubating at 4°C +/- 1°C, and proceeding to a second microtubule polymerization cycle by adding GTP and incubating the mixture at 37°C, +/- 2°C, then centrifuging; (d) recovering the pellets of step (c) resuspending in ice-cold buffer, incubating at 4°C +/- 1°C, and proceeding to a third microtubule polymerization cycle by adding GTP and incubating the mixture at 37°C, +/- 2°C, then centrifuging; (e) resuspending the pellets of step (d) and submitting the mixture to an ion exchange chromatography and recovering the flow through; (f) precipitating the proteins of the flow through with a 60% saturated ammonium sulphate solution; (g) submitting the precipitated fraction of step (f) to an hydrophobic chromatography and eluting by gradually decreasing ammonium sulphate concentration up to zero to recover the fraction of proteins with a tubulin carboxypeptidase activity.
A compression coil spring formed by using a steel wire material having a circle-equivalent diameter of 1.5 to 9.0 mm, the steel wire material consisting of: C: 0.45 to 0.85 mass%, Si: 0.15 to 2.5 mass%, Mn: 0.3 to 1.0 mass%, optionally at least one of Cr, B, Ni, Ti, Cu, Nb, V, Mo, W: 0.005 to 4.5 mass%, Fe and inevitable impurities as a remainder, wherein hardness of a freely selected cross-section of the wire material is 570 to 700 HV, and at an inner diameter side of the coil spring, I -σR is 180 MPa·mm or more, in a case in which a depth from a surface is defined as a crossing point, where unloaded compressive residual stress value in approximate maximal main stress direction in a case of compressive load is loaded on the spring becomes 0, and integral value of the unloaded compressive residual stress from the surface to the crossing point region is described as the I -σR. C: 0.45 to 0.85 mass%, Si: 0.15 to 2.5 mass%, Mn: 0.3 to 1.0 mass%, optionally at least one of Cr, B, Ni, Ti, Cu, Nb, V, Mo, W: 0.005 to 4.5 mass%, Fe and inevitable impurities as a remainder, wherein hardness of a freely selected cross-section of the wire material is 570 to 700 HV, and at an inner diameter side of the coil spring, I -σR is 180 MPa·mm or more, in a case in which a depth from a surface is defined as a crossing point, where unloaded compressive residual stress value in approximate maximal main stress direction in a case of compressive load is loaded on the spring becomes 0, and integral value of the unloaded compressive residual stress from the surface to the crossing point region is described as the I -σR.
A method for preparing an aluminum-based carbonylation catalyst of formula: the method comprising a step of contacting a compound of formula I: with a neutral metal carbonyl compound having a formula Q' d M e w', wherein Q is independently at each occurrence a nitrogen or oxygen atom which is part of a ligand complexed to the aluminum atom, where any two or more Q groups may comprise part of a single ligand; Rq is selected from optionally substituted C 1-12 aliphatic and optionally substituted aryl; M is a metal atom; Q' is any ligand and need not be present; and, if present, is a phosphine ligand, a triaryl phosphine, a trialkyl phosphine, a phosphite ligand, an optionally substituted cyclopentadienyl ligand, cyclopentadienyl, or pentamethylcyclopentadienyl; d is an integer between 0 and 8 inclusive; e is an integer between 1 and 6 inclusive; w is a number such as to provide the stable anionic metal carbonyl complex; w' is a number such as to provide a stable neutral metal carbonyl complex; and y is the charge of the metal carbonyl anion. the method comprising a step of contacting a compound of formula I: with a neutral metal carbonyl compound having a formula Q' d M e w', wherein Q is independently at each occurrence a nitrogen or oxygen atom which is part of a ligand complexed to the aluminum atom, where any two or more Q groups may comprise part of a single ligand; Rq is selected from optionally substituted C 1-12 aliphatic and optionally substituted aryl; M is a metal atom; Q' is any ligand and need not be present; and, if present, is a phosphine ligand, a triaryl phosphine, a trialkyl phosphine, a phosphite ligand, an optionally substituted cyclopentadienyl ligand, cyclopentadienyl, or pentamethylcyclopentadienyl; d is an integer between 0 and 8 inclusive; e is an integer between 1 and 6 inclusive; w is a number such as to provide the stable anionic metal carbonyl complex; w' is a number such as to provide a stable neutral metal carbonyl complex; and y is the charge of the metal carbonyl anion.
A cosmetic composition comprising: a. a skin lightening additive which is 12-hydroxystearic acid and/or a salt thereof; b. a cosmetic carrier; and further comprising ricinoleic acid. a. a skin lightening additive which is 12-hydroxystearic acid and/or a salt thereof; b. a cosmetic carrier; and
A power unit for air conditioning systems installed on boats, including: at least one drive motor (10, 60, 110, 160); at least one compressor connected to the circuit of a refrigeration device; at least one mechanical pump (50, 150) for circulation of a heat exchange fluid along an open circuit; one or more rotating electrical machines (20, 40) and means (1, 11, 61) to drive said at least one compressor, said at least one mechanical pump and said one or more rotating electrical machines in rotation, wherein said at least one drive motor (10, 60, 110, 160) is an internal combustion engine (10, 60, 110, 160) with a four stroke cycle for marine propulsion, characterized by including a single flat support plate (70, 80) for said at least one drive motor (10, 60, 110, 160) and said components (20, 30, 40, 50, 150), wherein said at least one drive motor (10, 60, 110, 160) and said components are mounted with rotation axes of the respective shafts disposed perpendicular to said flat support plate (70, 80).
A method for ultrasound imaging using an ultrasound system comprising an US probe having a transducer array and an analogue-to-digital converter array, wherein the US probe is configured to insonify an imaging region, receive echo signals, digitize the received echo signals by the ADC array and transfer the digitized radiofrequency data to a data processing unit via a bandwidth-limited channel, wherein the data processing unit is adapted to beamform the RF data, the method comprising the following steps: - acquiring at least one scouting image of the imaging region, the scouting image including an anatomical structure of interest; - selecting at least one region of interest within the scouting image, wherein the at least one ROI includes a portion of the anatomical structure; - setting a transmit scheme and a receive scheme for US imaging of the imaging region, wherein the at least one ROI is insonified with different TX and RX settings than the imaging region outside the at least one ROI; - acquiring a plurality of US images according to the TX scheme and the RX scheme; wherein the US probe is configured to transfer to the data processing unit only the received RF data corresponding to a depth range of the at least one ROI for at least some of the stipulated receive beams reflected from the at least one ROI, and is configured to transfer the received RF data corresponding to the full depth of the imaging region for at least some of the receive beams reflected from the imaging region outside the at least one ROI. - acquiring at least one scouting image of the imaging region, the scouting image including an anatomical structure of interest; - selecting at least one region of interest within the scouting image, wherein the at least one ROI includes a portion of the anatomical structure; - setting a transmit scheme and a receive scheme for US imaging of the imaging region, wherein the at least one ROI is insonified with different TX and RX settings than the imaging region outside the at least one ROI; - acquiring a plurality of US images according to the TX scheme and the RX scheme;
A device comprising: a first portion configured to be grasped by the hand of the user; and a second portion comprising: a reservoir containing a first control material, wherein the control material comprises a target analyte of a known or predetermined concentration; and a flexible neck configured to permit relative movement between the first portion and the reservoir, wherein the flexible neck comprises a first thin neck, a second thin neck, and an enlarged section between the first and second thin necks. a first portion configured to be grasped by the hand of the user; and a second portion comprising: a reservoir containing a first control material, wherein the control material comprises a target analyte of a known or predetermined concentration; and a flexible neck configured to permit relative movement between the first portion and the reservoir, wherein the flexible neck comprises a first thin neck, a second thin neck, and an enlarged section between the first and second thin necks. a reservoir containing a first control material, wherein the control material comprises a target analyte of a known or predetermined concentration; and a flexible neck configured to permit relative movement between the first portion and the reservoir, wherein the flexible neck comprises a first thin neck, a second thin neck, and an enlarged section between the first and second thin necks.
A coating powder material made of a polymer powder which (i) comprises a fluorine-containing polymer prepared by suspension polymerization, (ii) contains less than 0.1 ppm of a fluorine-containing surfactant, and (iii) has an average particle size of 1 to less than 100 μ m and a bulk density of 0.90-1.50 g/cm 3, or has an average particle size of 100-1000 μm and a bulk density of 1.00-1.50 g/cm 3, wherein the fluorine-containing polymer is at least one selected from a tetrafluoroethylene/perfluoro(alkyl vinyl ether) (TFE/PAVE) copolymer wherein the TFE unit/PAVE unit molar ratio is 70/30 to 98.5/1.5, a TFE/hexafluoropropylene copolymer wherein the TFE unit/HFP unit molar ratio is 80/20 to 97/3, and a TFE/ethylene (Et) copolymer wherein the TFE unit/Et unit molar ratio is 20/80 to 90/10, and the average particle size is measured using a laser diffraction/scattering particle size analyzer MT3300EXII from NIKKISO Co., Ltd. (i) comprises a fluorine-containing polymer prepared by suspension polymerization, (ii) contains less than 0.1 ppm of a fluorine-containing surfactant, and (iii) has an average particle size of 1 to less than 100 μ m and a bulk density of 0.90-1.50 g/cm 3, or has an average particle size of 100-1000 μm and a bulk density of 1.00-1.50 g/cm 3,
A sustained release pharmaceutical formulation comprising: a therapeutic agent for systemic administration, the therapeutic agent comprising a protein active agent and at least 60 elastin-like peptide structural units of SEQ ID NO: 3, and wherein the protein active agent is a Glucagon-like peptide -2 receptor agonist comprising the amino acid sequence of SEQ ID NO: 70. a therapeutic agent for systemic administration, the therapeutic agent comprising a protein active agent and at least 60 elastin-like peptide structural units of SEQ ID NO: 3, and wherein the protein active agent is a Glucagon-like peptide -2 receptor agonist comprising the amino acid sequence of SEQ ID NO: 70.
A device for collecting runoff water, including at least one water collecting duct intended to be sealed under the surface of a floor intended to be covered with covering elements (51, 52) and at least one removable strip, said collecting duct having a wall having an inner surface and an outer surface, and comprising an access opening onto the surface of said floor, said collecting device including, on both sides of said access and extending protruding along at least part of the collecting duct, at least one means for retaining the removable strip, the latter having an inverted U-shaped general cross-section with a transverse portion comprising at least one slit longitudinal to the device and flanked on both sides by two legs (83, 84), said at least one longitudinal slot forming the access to the inside of the collecting duct, said removable strip having a height adapted to the thickness e of the covering elements (51, 52), said collecting device being characterized in that the cross-section of the collecting duct is a portion of a circle or a semicircle defining, on both sides of the access, two substantially planar supporting surfaces (91, 92) for the laying of the covering elements (51, 52).
Device for extracting an electronic board including a lever for extracting the electronic board, the lever being mounted so as to be able to rotate with respect to the electronic board such that the lever pivots between a first position and a second position, the rotation of the lever from the first position to the second position bringing about a motion for extracting the board, characterized in that the device includes means (13, 20, 16, 43) for rotationally blocking the lever in the first position, which means are controlled electromagnetically, the blocking means including an electromagnet (20, 40) intended to be controlled by a device for controlling the extraction of the board and acting on the lever, and an electromagnetic locking bar with a rod mounted in translation and the translation of which is controlled by the electromagnet.
Drive device, in particular for an adjustable vehicle flap, comprising a housing, wherein the housing extends axially along a drive axle, a motor for generating a driving force in the direction of the drive axle, a first drive element, a coupling device arranged between the motor and the first drive element, wherein the coupling device comprises a coupling housing and at least one first coupling part with a coupling section for coupling to the first drive element, wherein the first drive element is coupled to the coupling device via the coupling section of the first coupling part, and a braking device for braking a drive movement of the first drive element, characterized in that the braking device is arranged axially completely in the coupling section of the first coupling part. a housing, wherein the housing extends axially along a drive axle, a motor for generating a driving force in the direction of the drive axle, a first drive element, a coupling device arranged between the motor and the first drive element, wherein the coupling device comprises a coupling housing and at least one first coupling part with a coupling section for coupling to the first drive element, wherein the first drive element is coupled to the coupling device via the coupling section of the first coupling part, and a braking device for braking a drive movement of the first drive element,
A nickel-based single-crystal superalloy composition consisting of: 6 wt% aluminum; 6.5 wt % tantalum; 4.5 wt% chromium; 5.0 wt% tungsten; 2.5 wt% molybdenum; 4 wt% rhenium; 12 wt% cobalt; 0.20 wt% hafnium; 0.02 wt% carbon; 0.004 wt% boron; and balance nickel and incidental impurities, wherein the composition exhibits a sustained peak low cycle fatigue life at 982°C/310 MPa (1800°F/45 ksi) of at least 4000 cycles. 6 wt% aluminum; 6.5 wt % tantalum; 4.5 wt% chromium; 5.0 wt% tungsten; 2.5 wt% molybdenum; 4 wt% rhenium; 12 wt% cobalt; 0.20 wt% hafnium; 0.02 wt% carbon; 0.004 wt% boron; and balance nickel and incidental impurities, wherein the composition exhibits a sustained peak low cycle fatigue life at 982°C/310 MPa (1800°F/45 ksi) of at least 4000 cycles.
An auxiliary generator assembly comprising: an auxiliary generator having a stator housing; and a bracket assembly for supporting terminal leads (30a-d) in the auxiliary generator, the bracket assembly comprising: a) a first metallic bracket adapted and configured to be fastened to the stator housing of the generator to retain a main stator within the stator housing wherein the first metallic bracket is fastened to the stator housing with one or more fasteners (25a-d) passing through the first metallic bracket and into the stator housing; and b) a second non-metallic bracket adapted and configured to be fastened to a top surface of the first bracket to support a plurality of terminal leads (30a-d) within the stator housing, wherein the first metallic bracket is located axially between the second bracket and a flange of the stator housing, wherein the second non-metallic bracket: is fastened to the top surface of the first metallic bracket with one or more fasteners (25a-d) passing through the second non-metallic bracket and into the first metallic bracket. a) a first metallic bracket adapted and configured to be fastened to the stator housing of the generator to retain a main stator within the stator housing wherein the first metallic bracket is fastened to the stator housing with one or more fasteners (25a-d) passing through the first metallic bracket and into the stator housing; and b) a second non-metallic bracket adapted and configured to be fastened to a top surface of the first bracket to support a plurality of terminal leads (30a-d) within the stator housing, wherein the first metallic bracket is located axially between the second bracket and a flange of the stator housing, wherein the second non-metallic bracket: is fastened to the top surface of the first metallic bracket with one or more fasteners (25a-d) passing through the second non-metallic bracket and into the first metallic bracket.
A method of controlling a main control valve of an excavator by handling a boom joystick and an arm joystick, the method comprising: closing a second arm control spool between a first hydraulic pump and the arm cylinder; opening a first boom control spool between the first hydraulic pump and the boom cylinder to supply a first flux generated from the first hydraulic pump to the boom cylinder; closing a second boom control spool between a second hydraulic pump and the boom cylinder; and opening a first arm control spool between the second hydraulic pump and the arm cylinder to supply a second flux generated from the second hydraulic pump to the arm cylinder, the method being characterized in that it further comprises: partially opening the second arm control spool to supply a part of the first flux to the arm cylinder when the boom joystick is handled in a decreasing direction of the speed of the boom or the arm joystick is handled in an increasing direction of the speed of the arm. closing a second arm control spool between a first hydraulic pump and the arm cylinder; opening a first boom control spool between the first hydraulic pump and the boom cylinder to supply a first flux generated from the first hydraulic pump to the boom cylinder; closing a second boom control spool between a second hydraulic pump and the boom cylinder; and opening a first arm control spool between the second hydraulic pump and the arm cylinder to supply a second flux generated from the second hydraulic pump to the arm cylinder,
A film roll core (200; 300; 301; 400; 401), comprising: a cylindrical tube (210; 310; 410) having an outer surface (214; 314; 414); and an engagement cover (260; 360; 460) comprising a resilient looped pile fabric (268; 368; 468), the engagement cover (260; 360; 460) disposed over the outer surface (214; 314; 414) of the cylindrical tube (210; 310; 410), wherein the resilient looped pile fabric (268; 368; 468) is a knit fabric comprising a base layer (264; 364; 464) having first and second faces and a resilient looped pile protruding from the first face, the resilient looped pile fabric (268; 368; 468) comprising a fiber having a size ranging from about 56 dtex (50 denier) to about 556 dtex (500 denier) and loops having a loop height from about 0.4 mm to about 3.0 mm. a cylindrical tube (210; 310; 410) having an outer surface (214; 314; 414); and an engagement cover (260; 360; 460) comprising a resilient looped pile fabric (268; 368; 468), the engagement cover (260; 360; 460) disposed over the outer surface (214; 314; 414) of the cylindrical tube (210; 310; 410), wherein the resilient looped pile fabric (268; 368; 468) is a knit fabric comprising a base layer (264; 364; 464) having first and second faces and a resilient looped pile protruding from the first face, the resilient looped pile fabric (268; 368; 468) comprising a fiber having a size ranging from about 56 dtex (50 denier) to about 556 dtex (500 denier) and loops having a loop height from about 0.4 mm to about 3.0 mm.
A system for the internal broaching of a cylindrical bore of a piece to be machined; the system comprising a broach and a piece bearing table, which is suited to support the piece to be machined; the system being characterised in that guiding and coupling means are arranged between said broach and said piece bearing table, so as to guide said broach during the broaching process to which said piece is subject.