mhurhangee/ep-ind-claims huggingface dataset:
A pipe-connecting device comprising: a resin-made tube; and an inner ring in which a flared portion is formed in an outer circumferential portion of an inner ring body that is to be press-inserted into the resin-made tube, and a tip-contracted outer-circumferential flared surface which is press-inserted into an end portion from an opening of the tube to cause the end portion of the tube to be flared and deformed is formed in a tip end side of the flared portion, characterized in that a section shape of the outer-circumferential flared surface in a direction extending along an axis of the inner ring body is formed into a convex curved surface passing through: a first place which is a maximum-diameter portion of the flared portion; a second place which is a tip end on a side of the tube press insertion; and a third place which is between the first place and the second place, and in which a diameter is equal to an outer diameter of the tube with respect to the axis, and an angle (α) formed by the tangential line of the outer-circumferential flared surface in the third place and the axis is 30 to 60 degrees (30° ≤ α ≤ 60°). a resin-made tube; and an inner ring in which a flared portion is formed in an outer circumferential portion of an inner ring body that is to be press-inserted into the resin-made tube, and a tip-contracted outer-circumferential flared surface which is press-inserted into an end portion from an opening of the tube to cause the end portion of the tube to be flared and deformed is formed in a tip end side of the flared portion, characterized in that a section shape of the outer-circumferential flared surface in a direction extending along an axis of the inner ring body is formed into a convex curved surface passing through: a first place which is a maximum-diameter portion of the flared portion; a second place which is a tip end on a side of the tube press insertion; and a third place which is between the first place and the second place, and in which a diameter is equal to an outer diameter of the tube with respect to the axis, and an angle (α) formed by the tangential line of the outer-circumferential flared surface in the third place and the axis is 30 to 60 degrees (30° ≤ α ≤ 60°).
A combined assay for measuring thrombin generated in a blood sample and determining both the amount of measured TG that is dependent on Tissue Factor activation of FVIII to FVIIIa and the amount of measured TG that is independent of TF activation of FVIII to FVIIIa in the blood sample, comprising: (i) incubating the blood sample with Tissue Factor, FIXa, and CaCl 2 for up to 5 minutes; and measuring TG in the blood sample by using H-D-cyclohexyl-alanyl-alanyl-argininyl-amidomethylcoumarin and/or butyloxycarbonyl-valyl-prolinyl-argininyl-AMC (V-P-R-AMC), wherein the measured TG is dependent on TF activation of FVIII to FVIIIa, and (ii) incubating the blood sample with Tissue Factor and CaCl 2 but without FIXa, for up to 5 minutes; and measuring TG in the blood sample by using H-D-cyclohexyl-alanyl-alanyl-argininyl-amidomethylcoumarin and/or butyloxycarbonyl-valyl-prolinyl-argininyl-AMC (V-P-R-AMC), wherein the measured TG is independent of TF activation of FVIII to FVIIIa. (i) incubating the blood sample with Tissue Factor, FIXa, and CaCl 2 for up to 5 minutes; and measuring TG in the blood sample by using H-D-cyclohexyl-alanyl-alanyl-argininyl-amidomethylcoumarin and/or butyloxycarbonyl-valyl-prolinyl-argininyl-AMC (V-P-R-AMC), wherein the measured TG is dependent on TF activation of FVIII to FVIIIa, and (ii) incubating the blood sample with Tissue Factor and CaCl 2 but without FIXa, for up to 5 minutes; and measuring TG in the blood sample by using H-D-cyclohexyl-alanyl-alanyl-argininyl-amidomethylcoumarin and/or butyloxycarbonyl-valyl-prolinyl-argininyl-AMC (V-P-R-AMC), wherein the measured TG is independent of TF activation of FVIII to FVIIIa.
An infusion solution of Levodopa with a volume of the solution adapted for continuous intravenous and/or subcutaneous and/or intrathekal administration, containing: a) at least 5 mg/mL of Levodopa together with at least 0.5 mg/mL of at least one of the levodopa-metabolising enzyme inhibitors L-2-hydrazino-3-(3,4-dihydroxyphenyl)-2-methylpropanoic acid (carbidopa) and -N,α-dimethyl-N-(2-propynyl) phenethyl amine (selegiline); b) a buffer; c) physiologically acceptable sugar; and d) a physiologically acceptable acid, the pH of the solution being lower than or equal to 6, for use in treating fluctuations with altering dyskinesia and bradykinesia in a subject suffering from Parkinson's disease, wherein the infusion solution is administered via continuous infusion. a) at least 5 mg/mL of Levodopa together with at least 0.5 mg/mL of at least one of the levodopa-metabolising enzyme inhibitors L-2-hydrazino-3-(3,4-dihydroxyphenyl)-2-methylpropanoic acid (carbidopa) and -N,α-dimethyl-N-(2-propynyl) phenethyl amine (selegiline); b) a buffer; c) physiologically acceptable sugar; and d) a physiologically acceptable acid,
A method performed by a wireless device in a wireless communication system, the method comprising: configuring the wireless device to perform measurements on a set of candidate links for supporting a network node in the wireless communication system to make a decision as to which of the candidate links is to be a target link for a link switch; characterized in that the method comprises at a physical layer, reporting measured candidate links one link subset at a time in order of the wireless device's preference for the target link, until the wireless device receives a target indication signal indicating which of the candidate links in the set is to be the target link, wherein any given link subset reports one or more candidate links which the wireless device has measured for the decision; and responsive to receiving the target indication signal, performing the link switch to the indicated target link. configuring the wireless device to perform measurements on a set of candidate links for supporting a network node in the wireless communication system to make a decision as to which of the candidate links is to be a target link for a link switch; characterized in that the method comprises at a physical layer, reporting measured candidate links one link subset at a time in order of the wireless device's preference for the target link, until the wireless device receives a target indication signal indicating which of the candidate links in the set is to be the target link, wherein any given link subset reports one or more candidate links which the wireless device has measured for the decision; and responsive to receiving the target indication signal, performing the link switch to the indicated target link.
An electrode comprising: an active material-containing layer containing active material particles, and the active material particles containing particles of a lithium-containing nickel-cobalt-manganese composite oxide represented by the following Formula: Li 1-x Ni 1-a-b Co a Mn b O 2, in the Formula, x is in a range of -0.2 ≤ x ≤ 0.5, a is in a range of 0 < a ≤ 0.4, and b is in a range of 0 < b ≤ 0.4, a logarithmic differential pore volume distribution curve of the active material-containing layer determined by a mercury intrusion method as described in the specification includes a first peak and a second peak, the first peak is a local maximum value in a range where a pore size is from 0.1 μm or more to 0.5 μm or less, the second peak is a local maximum value in a range where the pore size is from 0.5 um or more to 1.0 μm or less and in a range where the pore size is larger than the pore size of the first peak, an intensity A1 of the first peak and an intensity A2 of the second peak satisfy a relational expression of 0.1 ≤ A2/A1 ≤ 0.3, and a density of the active material-containing layer is from 2.9 g/cm 3 or more to 3.3 g/cm 3 or less. an active material-containing layer containing active material particles, and the active material particles containing particles of a lithium-containing nickel-cobalt-manganese composite oxide represented by the following Formula: Li 1-x Ni 1-a-b Co a Mn b O 2, in the Formula, x is in a range of -0.2 ≤ x ≤ 0.5, a is in a range of 0 < a ≤ 0.4, and b is in a range of 0 < b ≤ 0.4, a logarithmic differential pore volume distribution curve of the active material-containing layer determined by a mercury intrusion method as described in the specification includes a first peak and a second peak, the first peak is a local maximum value in a range where a pore size is from 0.1 μm or more to 0.5 μm or less, the second peak is a local maximum value in a range where the pore size is from 0.5 um or more to 1.0 μm or less and in a range where the pore size is larger than the pore size of the first peak, an intensity A1 of the first peak and an intensity A2 of the second peak satisfy a relational expression of 0.1 ≤ A2/A1 ≤ 0.3, and a density of the active material-containing layer is from 2.9 g/cm 3 or more to 3.3 g/cm 3 or less.
A method of friction stir welding a first base material to a second base material where at least one of the first and second base materials comprises a steel, comprising: mounting a non-consumable tool into a spindle of a friction stir welding apparatus; characterised by the following steps: operating the apparatus at a spindle run out that allows welding at a critical transverse velocity to produce a weld between the first and second base materials, wherein the run out of the spindle at zero load is equal or less than 12.7xlOE-3 mm [5xlOE-4 inch]; wherein the weld has at least one of a tensile strength, a yield strength, and a Charpy impact strength that is equal or greater than that of the weaker of the first and second base materials; and wherein the critical transverse velocity is at least 0.005 m/s [12 inches per minute]; wherein the tool comprises polycrystalline cubic boron nitride, refractory alloy tungsten-rhenium, or polycrystalline diamond, and is configured as a non-consumable tool; wherein the tool has an angular velocity between 200-800 rpm; wherein the transverse velocity is between 0.005-0.0169 m/s [12-40 inches per minute]; wherein the transverse and angular velocities are selected such that a temperature in the weld is below a phase change temperature or a solid state transformation point of the first and second base materials. mounting a non-consumable tool into a spindle of a friction stir welding apparatus; characterised by the following steps: operating the apparatus at a spindle run out that allows welding at a critical transverse velocity to produce a weld between the first and second base materials, wherein the run out of the spindle at zero load is equal or less than 12.7xlOE-3 mm [5xlOE-4 inch]; wherein the weld has at least one of a tensile strength, a yield strength, and a Charpy impact strength that is equal or greater than that of the weaker of the first and second base materials; and wherein the critical transverse velocity is at least 0.005 m/s [12 inches per minute]; operating the apparatus at a spindle run out that allows welding at a critical transverse velocity to produce a weld between the first and second base materials, wherein the run out of the spindle at zero load is equal or less than 12.7xlOE-3 mm [5xlOE-4 inch]; wherein the weld has at least one of a tensile strength, a yield strength, and a Charpy impact strength that is equal or greater than that of the weaker of the first and second base materials; and wherein the critical transverse velocity is at least 0.005 m/s [12 inches per minute]; wherein the tool comprises polycrystalline cubic boron nitride, refractory alloy tungsten-rhenium, or polycrystalline diamond, and is configured as a non-consumable tool; wherein the tool has an angular velocity between 200-800 rpm; wherein the transverse velocity is between 0.005-0.0169 m/s [12-40 inches per minute]; wherein the transverse and angular velocities are selected such that a temperature in the weld is below a phase change temperature or a solid state transformation point of the first and second base materials.
An electroacoustic transducer comprising: a housing; a diaphragm and located proximate to the housing, adapted to move relative to the housing; a displacement sensor comprising: a first electrode adhered to either the diaphragm or a first surface of the housing, a second electrode on the other of the diaphragm or the first surface of the housing and located proximate to a first region of the first electrode; and an impedance buffer coupled to the displacement sensor; characterized in that the displacement sensor further comprises a third electrode on the same surface as the second electrode and located proximate to a second region of the first electrode, wherein a first capacitance of a first capacitor formed between the first electrode and the second electrode and a second capacitance of a second capacitor, in series with the first capacitor, formed between the first electrode and the third electrode each vary similarly with a displacement of the diaphragm relative to the housing; and in that the impedance buffer is coupled to the second electrode and the third electrode. a housing; a diaphragm and located proximate to the housing, adapted to move relative to the housing; a displacement sensor comprising: a first electrode adhered to either the diaphragm or a first surface of the housing, a second electrode on the other of the diaphragm or the first surface of the housing and located proximate to a first region of the first electrode; and an impedance buffer coupled to the displacement sensor; characterized in that the displacement sensor further comprises a third electrode on the same surface as the second electrode and located proximate to a second region of the first electrode, wherein a first capacitance of a first capacitor formed between the first electrode and the second electrode and a second capacitance of a second capacitor, in series with the first capacitor, formed between the first electrode and the third electrode each vary similarly with a displacement of the diaphragm relative to the housing; and in that the impedance buffer is coupled to the second electrode and the third electrode. a first electrode adhered to either the diaphragm or a first surface of the housing, a second electrode on the other of the diaphragm or the first surface of the housing and located proximate to a first region of the first electrode; and an impedance buffer coupled to the displacement sensor; characterized in that the displacement sensor further comprises a third electrode on the same surface as the second electrode and located proximate to a second region of the first electrode, wherein a first capacitance of a first capacitor formed between the first electrode and the second electrode and a second capacitance of a second capacitor, in series with the first capacitor, formed between the first electrode and the third electrode each vary similarly with a displacement of the diaphragm relative to the housing; and in that the impedance buffer is coupled to the second electrode and the third electrode.
A fiber optic gyro comprising: a sensing system configured to circulate counter-propagating light beams and further configured to produce an output light beam derived from said counter-propagating light beams; a first coupler having first, second, third and fourth ports (11, 13, 15, 17), said first coupler configured to receive an input light beam and further configured to supply said input light beam to said sensing system via said first port, said counter-propagating light beams derived from said input light beam; a first detector coupled to said third port of said first coupler and configured to detect a rotation rate of the fiber optic gyro from a portion of said output light beam, said first coupler further configured to direct said portion of said output light beam to said first detector; a second detector coupled to said fourth port of said first coupler and configured to detect noise in a portion of said input light beam, said first coupler further configured to direct said portion of said input light beam to said second detector; characterised in that said fiber optic gyro further comprises an optical device coupled to one of said first, second, third, and fourth ports ( 11, 13, 15, 17) of said first coupler, said optical device configured to reduce a spectral mismatch between said portion of said input light beam and said portion of said output light beam. a sensing system configured to circulate counter-propagating light beams and further configured to produce an output light beam derived from said counter-propagating light beams; a first coupler having first, second, third and fourth ports (11, 13, 15, 17), said first coupler configured to receive an input light beam and further configured to supply said input light beam to said sensing system via said first port, said counter-propagating light beams derived from said input light beam; a first detector coupled to said third port of said first coupler and configured to detect a rotation rate of the fiber optic gyro from a portion of said output light beam, said first coupler further configured to direct said portion of said output light beam to said first detector; a second detector coupled to said fourth port of said first coupler and configured to detect noise in a portion of said input light beam, said first coupler further configured to direct said portion of said input light beam to said second detector; characterised in that said fiber optic gyro further comprises an optical device coupled to one of said first, second, third, and fourth ports ( 11, 13, 15, 17) of said first coupler, said optical device configured to reduce a spectral mismatch between said portion of said input light beam and said portion of said output light beam.
A method of regulating gene expression in a mammalian cell, comprising contacting a cell in vitro with a double-stranded oligonucleotide to thereby regulate gene expression in said cell, wherein the oligonucleotide is at least 10 nucleomonomers in length and is less than 25 nucleomonomers in length, and wherein at least one nucleotide is a 2'-O-methyl nucleotide.
A turbomachine, comprising an annular flow path section (57,61) between a plurality of radially extending stator vanes and a plurality of radially extending rotor blades, wherein the annular flow path section corresponds to a platform wing (70a-e) of the stator vane extending between the trailing edge of a plurality of radially extending stator vanes and the leading edge of a plurality of radially extending rotor blades, characterised in that at least a first annular portion of the annular flow path section has a circumferentially varying outer periphery including a repeating pattern of recesses circumferentially alternating with axisymmetric surfaces, the pattern not including any structure that is proud of the axisymmetric surfaces.
An electrically conductive and corrosion resistant graphene-based coating composition, comprising: from 50 weight % to 99 weight %, based on a total weight of the graphene-based coating composition of a binder; a graphene filler; and a dispersing agent, wherein the graphene filler comprises a plurality of graphene stacks and wherein the plurality of graphene stacks comprise high-pressure airless-spray partially exfoliated graphene stacks; and wherein the binder comprises a silane-based binder. from 50 weight % to 99 weight %, based on a total weight of the graphene-based coating composition of a binder; a graphene filler; and a dispersing agent, wherein the graphene filler comprises a plurality of graphene stacks and wherein the plurality of graphene stacks comprise high-pressure airless-spray partially exfoliated graphene stacks; and
A method for the electrochemical machining of blades of a turbomachine, the blade comprising a gas channel region and shrouds at the blade root and/or at the blade tip, which shrouds are inclined on one side or on both sides such that undercuts are formed in the gas channel region, multiple electrodes (55 - 60), which are arranged in a star-like manner, being used in order to be moved from an initial position that is at a first distance from a surface to be machined into a final position that is at a second distance from an end contour of the surface to be machined so that, in the final position, a closed working surface of the electrodes having a negative shape is situated opposite the end contour of the surface to be machined, characterized in that - each electrode (55 - 60) is made up of several parts and comprises at least three electrode parts (10, 11, 12, 14, 15, 16), and - the electrode parts are arranged in a row perpendicularly to the plane in which the multi-part electrodes (55 - 60) are arranged in a star-like manner. - each electrode (55 - 60) is made up of several parts and comprises at least three electrode parts (10, 11, 12, 14, 15, 16), and - the electrode parts are arranged in a row perpendicularly to the plane in which the multi-part electrodes (55 - 60) are arranged in a star-like manner.
Compound 6-chloro-2-ethyl- N -(4-(4-(4-(trifluoromethoxy)phenyl)piperidine-1-yl)benzyl)imidazo[1,2-a]pyridine-3-carboxamide ditosylate having the structure and furthermore having the following peaks in an X-ray Powder Diffraction (XRPD) spectrum obtained by irradiation with Cu-K α - radiation (Cu-K α): 3.9° 2θ, 5.6° 2θ, 8.0° 2θ, 16.1° 2θ, 19.1° 2θ, and 22.4° 2θ, ± 0.2° 2θ.
A light apparatus, comprising: a driver circuit for converting an external power source to a driving current; a LED plate being connected to the driver circuit and having a first LED module for emitting a first light with the driving current; an optical light guide having a bottom end facing to the first LED module for receiving the first light and having a top end forming an enlightened pattern where the first light escapes from the top end of the optical light guide; a connector for fixing the LED plate to the optical light guide for aligning the first LED module to emit the first light into the bottom end and for transmitting heat of the LED plate to the optical light guide; and a bulb shell covering the optical light guide; wherein the LED plate further has a second LED module not directly emitting a second light into the optical light guide for emitting the second light as a luminous source; characterized in that the LED plate further comprises a third LED module for emitting a third light into the optical light guide to form a second enlightened pattern, the third LED module is operable independently from the first LED module to provide multiple operation combinations of the first LED module and the third LED module. a driver circuit for converting an external power source to a driving current; a LED plate being connected to the driver circuit and having a first LED module for emitting a first light with the driving current; an optical light guide having a bottom end facing to the first LED module for receiving the first light and having a top end forming an enlightened pattern where the first light escapes from the top end of the optical light guide; a connector for fixing the LED plate to the optical light guide for aligning the first LED module to emit the first light into the bottom end and for transmitting heat of the LED plate to the optical light guide; and a bulb shell covering the optical light guide; wherein the LED plate further has a second LED module not directly emitting a second light into the optical light guide for emitting the second light as a luminous source; characterized in that the LED plate further comprises a third LED module for emitting a third light into the optical light guide to form a second enlightened pattern, the third LED module is operable independently from the first LED module to provide multiple operation combinations of the first LED module and the third LED module.