mhurhangee/ep-ind-claims huggingface dataset:
A modular load carrying apparatus for a rotary wing aircraft, comprising: a tube that has a first predetermined outer diameter and first and second axial ends (211, 212); a first cap that is located inside the tube at the first axial end and adapted for being connected with the rotary wing aircraft; a second cap that is located inside the tube at the second axial end and comprises a protrusion that protrudes from the second axial end and has a second predetermined outer diameter that is greater than the first predetermined outer diameter; and at least first and second removable platforms (220, 230) that are interchangeably installable on the tube, wherein each one of the at least first and second platforms (220, 230) has a first predetermined inner diameter that is greater than the first predetermined outer diameter and smaller than the second predetermined outer diameter such that each one of the at least first and second removable platforms (220, 230) is adapted for being slidable over the first axial end of the tube and restrained by the second axial end of the tube. a tube that has a first predetermined outer diameter and first and second axial ends (211, 212); a first cap that is located inside the tube at the first axial end and adapted for being connected with the rotary wing aircraft; a second cap that is located inside the tube at the second axial end and comprises a protrusion that protrudes from the second axial end and has a second predetermined outer diameter that is greater than the first predetermined outer diameter; and at least first and second removable platforms (220, 230) that are interchangeably installable on the tube, wherein each one of the at least first and second platforms (220, 230) has a first predetermined inner diameter that is greater than the first predetermined outer diameter and smaller than the second predetermined outer diameter such that each one of the at least first and second removable platforms (220, 230) is adapted for being slidable over the first axial end of the tube and restrained by the second axial end of the tube.
A biometric combination sensor, comprising: a first infrared light sensor configured to sense light associated with a first wavelength within an infrared wavelength spectrum; and a second infrared light sensor configured to sense light associated with a second wavelength within the infrared wavelength spectrum, wherein the first infrared light sensor and the second infrared light sensor are stacked in relation to each other, wherein the first infrared light sensor is on the light incident side; characterized in that: the first wavelength is a shorter wavelength than the second wavelength, the first wavelength is within a wavelength spectrum of 780 nm to 900 nm, and the second wavelength is within a wavelength spectrum of 830 nm to 1000 nm, and in that the first infrared light sensor includes: a first electrode and a second electrode facing each other, and a first photoelectric conversion layer between the first electrode and the second electrode, the first photoelectric conversion layer including a first light absorbing material configured to selectively absorb infrared light including the first wavelength. a first infrared light sensor configured to sense light associated with a first wavelength within an infrared wavelength spectrum; and a second infrared light sensor configured to sense light associated with a second wavelength within the infrared wavelength spectrum, wherein the first infrared light sensor and the second infrared light sensor are stacked in relation to each other, wherein the first infrared light sensor is on the light incident side; characterized in that: the first wavelength is a shorter wavelength than the second wavelength, the first wavelength is within a wavelength spectrum of 780 nm to 900 nm, and the second wavelength is within a wavelength spectrum of 830 nm to 1000 nm, and in that the first infrared light sensor includes: a first electrode and a second electrode facing each other, and a first photoelectric conversion layer between the first electrode and the second electrode, the first photoelectric conversion layer including a first light absorbing material configured to selectively absorb infrared light including the first wavelength. the first wavelength is a shorter wavelength than the second wavelength, the first wavelength is within a wavelength spectrum of 780 nm to 900 nm, and the second wavelength is within a wavelength spectrum of 830 nm to 1000 nm, and in that the first infrared light sensor includes: a first electrode and a second electrode facing each other, and a first photoelectric conversion layer between the first electrode and the second electrode, the first photoelectric conversion layer including a first light absorbing material configured to selectively absorb infrared light including the first wavelength. a first electrode and a second electrode facing each other, and a first photoelectric conversion layer between the first electrode and the second electrode, the first photoelectric conversion layer including a first light absorbing material configured to selectively absorb infrared light including the first wavelength.
An in-vehicle image recognition device which processes an image captured by a pair of imaging units, wherein the pair of imaging units comprises a first imaging unit for capturing a first image and a second imaging unit for capturing a second image, wherein the second imaging unit is disposed in parallel to the first imaging unit; wherein the same light source is captured by the pair of imaging units in a capturing cycle (Tc), the capturing cycle (Tc) being an integer times a predetermined flickering cycle, wherein the timings of exposure of the pair of imaging units are deviated by (Ns + 0,5) times the flickering cycle such that the timing of exposure of the second imaging unit is shifted by (Ns + 0,5) times the flickering cycle compared to the timing of exposure of the first imaging unit, wherein Ns is an integer, wherein the in-vehicle image recognition device includes a light source recognition unit configured to perform a recognition process in which the light source is extracted from the first image and the second image and in a case where there is a difference equal to or more than a predetermined threshold between pixel values of the light source extracted from the first image and the second image, it is determined that the light source is a flickering light source. wherein the pair of imaging units comprises a first imaging unit for capturing a first image and a second imaging unit for capturing a second image, wherein the second imaging unit is disposed in parallel to the first imaging unit; wherein the same light source is captured by the pair of imaging units in a capturing cycle (Tc), the capturing cycle (Tc) being an integer times a predetermined flickering cycle, wherein the timings of exposure of the pair of imaging units are deviated by (Ns + 0,5) times the flickering cycle such that the timing of exposure of the second imaging unit is shifted by (Ns + 0,5) times the flickering cycle compared to the timing of exposure of the first imaging unit, wherein Ns is an integer, wherein the in-vehicle image recognition device includes a light source recognition unit configured to perform a recognition process in which the light source is extracted from the first image and the second image and in a case where there is a difference equal to or more than a predetermined threshold between pixel values of the light source extracted from the first image and the second image, it is determined that the light source is a flickering light source.
A compound represented by structural Formula or pharmaceutically acceptable salts thereof: wherein: R is (C 6 -C 10)aryl, (C 5 -C 10)heteroaryl, (C 6 -C 10)aryl(C 2 -C 6)alkenyl or 2-4 member polycyclyl, wherein each 2-4 member polycyclyl optionally and independently contains 1-2 ring heteroatoms selected from oxygen, nitrogen and sulfur; and wherein R is optionally substituted with 1-4 substituents independently selected from (C 1 -C 6)alkyl, halo(C 1 -C 6)alkyl, hydroxy(C 0 -C 6)alkyl, (C 6 -C 10)aryl, halo(C 6 -C 10)aryl, hydroxy(C 6 -C 10)aryl, (C 1 -C 6)alkoxy, halo(C 1 -C 6)alkoxy, (C 3 -C 8)cycloalkyl, halo(C 6 -C 6)aryl(C 1 -C 6)alkoxy, halogen, amino, (C 1 -C 6)alkoxy(C 6 -C 10)aryl(C 1 -C 6)alkoxy, nitro, (3 to 9 membered)heterocyclyl, (C 0 -C 6)alkyl(C 6 -C 10)aryl(C 0 -C 6)alkoxy, (C 5 -C 10)heterocycle, -OCF 3, -B 2, cyano(C 1 -C 6)alkylene amino, (C 1 -C 6)alkoxyamino, (C 6 -C 10)aryl(C 2 -C 6)alkenyl, (C 2 -C 6)alkenyl(C 1 -C 6)alkoxy, (C 1 -C 6)sulfoxy or -N(CH 3)(C 1 -C 6)OH. R is (C 6 -C 10)aryl, (C 5 -C 10)heteroaryl, (C 6 -C 10)aryl(C 2 -C 6)alkenyl or 2-4 member polycyclyl, wherein each 2-4 member polycyclyl optionally and independently contains 1-2 ring heteroatoms selected from oxygen, nitrogen and sulfur; and wherein R is optionally substituted with 1-4 substituents independently selected from (C 1 -C 6)alkyl, halo(C 1 -C 6)alkyl, hydroxy(C 0 -C 6)alkyl, (C 6 -C 10)aryl, halo(C 6 -C 10)aryl, hydroxy(C 6 -C 10)aryl, (C 1 -C 6)alkoxy, halo(C 1 -C 6)alkoxy, (C 3 -C 8)cycloalkyl, halo(C 6 -C 6)aryl(C 1 -C 6)alkoxy, halogen, amino, (C 1 -C 6)alkoxy(C 6 -C 10)aryl(C 1 -C 6)alkoxy, nitro, (3 to 9 membered)heterocyclyl, (C 0 -C 6)alkyl(C 6 -C 10)aryl(C 0 -C 6)alkoxy, (C 5 -C 10)heterocycle, -OCF 3, -B 2, cyano(C 1 -C 6)alkylene amino, (C 1 -C 6)alkoxyamino, (C 6 -C 10)aryl(C 2 -C 6)alkenyl, (C 2 -C 6)alkenyl(C 1 -C 6)alkoxy, (C 1 -C 6)sulfoxy or -N(CH 3)(C 1 -C 6)OH.
A brazed superabrasive assembly, comprising: a superabrasive layer; a stress relieving layer coupled to the superabrasive layer by a first braze layer; and a substrate coupled to the stress relieving layer by a last braze layer; wherein the stress relieving layer has a solidus or melting temperature that is greater than a solidus temperature of the first braze layer and the last braze layer; characterised in that: the first braze layer comprises Ag, Cu and Ti, the stress relieving layer comprises Cu, and the last braze layer comprises Ag and Cu, wherein the first braze layer, the stress relieving layer, and the last braze layer was, prior to brazing, a pre-brazed assembly having the following layers in sequence: an Ag-Cu braze alloy as the first braze layer; a Ti layer as a second layer; a Ag-Cu braze alloy as a third layer; the stress relieving layer being a Cu layer as a fourth layer; and a Ag-Cu braze alloy as the last braze layer. a superabrasive layer; a stress relieving layer coupled to the superabrasive layer by a first braze layer; and a substrate coupled to the stress relieving layer by a last braze layer; wherein the stress relieving layer has a solidus or melting temperature that is greater than a solidus temperature of the first braze layer and the last braze layer; characterised in that: the first braze layer comprises Ag, Cu and Ti, the stress relieving layer comprises Cu, and the last braze layer comprises Ag and Cu, wherein the first braze layer, the stress relieving layer, and the last braze layer was, prior to brazing, a pre-brazed assembly having the following layers in sequence: an Ag-Cu braze alloy as the first braze layer; a Ti layer as a second layer; a Ag-Cu braze alloy as a third layer; the stress relieving layer being a Cu layer as a fourth layer; and a Ag-Cu braze alloy as the last braze layer. an Ag-Cu braze alloy as the first braze layer; a Ti layer as a second layer; a Ag-Cu braze alloy as a third layer; the stress relieving layer being a Cu layer as a fourth layer; and
A method of assembling a pipeline at a seabed location, the method comprising: landing a connection tool on the seabed over a free end portion of a first pipeline section already placed on the seabed; locking the connection tool to the free end portion of the first pipeline section; connecting a lower end of a second pipeline section to the connection tool via an initiation line; while applying tension to the initiation line against reaction force of the connection tool, landing at least a lower end portion of the second pipeline section on the seabed with the lower end facing a free end of the first pipeline section; and pulling the lower end of the second pipeline section into mechanical engagement with the free end of the first pipeline section. landing a connection tool on the seabed over a free end portion of a first pipeline section already placed on the seabed; locking the connection tool to the free end portion of the first pipeline section; connecting a lower end of a second pipeline section to the connection tool via an initiation line; while applying tension to the initiation line against reaction force of the connection tool, landing at least a lower end portion of the second pipeline section on the seabed with the lower end facing a free end of the first pipeline section; and pulling the lower end of the second pipeline section into mechanical engagement with the free end of the first pipeline section.
A marine propulsion system (102, 202, 302) comprising: an outboard motor (102a, 302a) configured to be installed on a hull of a marine vessel and including an engine configured to drive a propulsion generator, and a generator configured to generate power by driving of the engine; a capacitor provided in the outboard motor (102a, 302a) and configured to smooth the power generated by the generator and output the smoothed power to a device on a hull side of the marine vessel; a power distributor (8, 308) provided in the outboard motor (102a, 302a); and an electric starter configured to start the engine, characterized in that the power distributor (8, 308) is configured to limit an output from the capacitor to the device on the hull side of the marine vessel, and the capacitor is configured to supply, to the starter, power to start the engine. an outboard motor (102a, 302a) configured to be installed on a hull of a marine vessel and including an engine configured to drive a propulsion generator, and a generator configured to generate power by driving of the engine; a capacitor provided in the outboard motor (102a, 302a) and configured to smooth the power generated by the generator and output the smoothed power to a device on a hull side of the marine vessel; a power distributor (8, 308) provided in the outboard motor (102a, 302a); and an electric starter configured to start the engine, characterized in that the power distributor (8, 308) is configured to limit an output from the capacitor to the device on the hull side of the marine vessel, and the capacitor is configured to supply, to the starter, power to start the engine.
A method for producing a nanoparticle comprising a core comprised of a first material and a layer comprised of a second material, wherein the first material is a semiconductor material incorporating ions from groups 13 and 15 of the periodic table, and the second material is an oxide of a metal selected from group 8 of the periodic table, the method comprising forming said core comprised of said first material and forming the layer comprised of said second material, wherein formation of said core comprises effecting conversion of a nanoparticle core precursor composition to the material of the nanoparticle core, and formation of the layer comprised of the second material comprises effecting conversion of a second material precursor composition containing a molecular complex comprising group 8 metal cations and N-nitrosophenylhydroxylamine anions to said second material.
Method for producing a sheet of a material containing alkaloids, the method comprising: ∘ mixing a material containing alkaloids with water to form a slurry; ∘ forming a sheet from the slurry; ∘ compressing the sheet between a first pair of rollers (307, 308), wherein at the beginning of the step of compressing the sheet, a water content of the sheet is comprised between about 50 percent and about 80 percent of the total weight of the sheet; characterised in that the method comprises ∘ further compressing the sheet compressed by the first pair of rollers (307, 308) between a second pair of rollers (317, 318), to obtain a desired thickness of the sheet of material containing alkaloids. ∘ mixing a material containing alkaloids with water to form a slurry; ∘ forming a sheet from the slurry; ∘ compressing the sheet between a first pair of rollers (307, 308), wherein at the beginning of the step of compressing the sheet, a water content of the sheet is comprised between about 50 percent and about 80 percent of the total weight of the sheet; characterised in that the method comprises ∘ further compressing the sheet compressed by the first pair of rollers (307, 308) between a second pair of rollers (317, 318), to obtain a desired thickness of the sheet of material containing alkaloids.
Method for measuring the size of a leakage flow of a seal, wherein a leakage sensor is provided on a leakage side of the seal, said leakage sensor comprising at least one heating element and at least two temperature sensors (11, 12) which are in heat-transferring connection with the leakage flow, comprising the following steps: continuous or intermittent detection of a temperature difference by means of the temperature sensors (11, 12) in the leakage flow over a section of a leakage channel through which the leakage flow flows, wherein a predetermined constant reference heat quantity is simultaneously generated with the heating element and transmitted into the leakage flow in the section of the leakage channel, and determination of the size of the current leakage flow as a function of the currently detected temperature difference; or continuously or intermittently setting a constant temperature difference in the leakage flow over a section of a leakage channel through which the leakage flow flows by generating a variable amount of heat with the heating element and transferring the amount of heat into the leakage flow in the section of the leakage channel, and determining the size of the current leakage flow as a function of the currently generated amount of heat; characterized in that, when determining the size of the current leakage flow, in addition to the currently detected temperature difference when a constant reference heat quantity is generated or in addition to the currently generated heat quantity when a constant temperature difference is set, the current absolute temperature of the leakage flow in the section through which the heat flows upstream of the heating element is detected and taken into account. continuous or intermittent detection of a temperature difference by means of the temperature sensors (11, 12) in the leakage flow over a section of a leakage channel through which the leakage flow flows, wherein a predetermined constant reference heat quantity is simultaneously generated with the heating element and transmitted into the leakage flow in the section of the leakage channel, and determination of the size of the current leakage flow as a function of the currently detected temperature difference; or continuously or intermittently setting a constant temperature difference in the leakage flow over a section of a leakage channel through which the leakage flow flows by generating a variable amount of heat with the heating element and transferring the amount of heat into the leakage flow in the section of the leakage channel, and determining the size of the current leakage flow as a function of the currently generated amount of heat; characterized in that, when determining the size of the current leakage flow, in addition to the currently detected temperature difference when a constant reference heat quantity is generated or in addition to the currently generated heat quantity when a constant temperature difference is set, the current absolute temperature of the leakage flow in the section through which the heat flows upstream of the heating element is detected and taken into account.
An anti-C5 antibody for use in a method of treating a human pediatric patient with Paroxysmal Nocturnal Hemoglobinuria, wherein the anti-C5 antibody comprises a heavy chain polypeptide comprising the amino acid sequence set forth in SEQ ID NO:14 and a light chain polypeptide comprising the amino acid sequence set forth in SEQ ID NO:11, wherein the human pediatric patient is under 18 years of age, and wherein the method comprises administering by intravenous administration the anti-C5 antibody: (a) once on Day 1 at a dose of 600 mg to a patient weighing ≥ 5 to < 10 kg, 600 mg to a patient weighing ≥ 10 to < 20 kg, 900 mg to a patient weighing ≥ 20 to < 30 kg, or 1200 mg to a patient weighing ≥ 30 to < 40 kg; and (b) on Day 15 and every four weeks thereafter at a dose of 300 mg to a patient weighing ≥ 5 to < 10 kg or 600 mg to a patient weighing ≥ 10 to < 20 kg; or on Day 15 and every eight weeks thereafter at a dose of 2100 mg to a patient weighing ≥ 20 to < 30 kg, or 2700 mg to a patient weighing ≥ 30 to < 40 kg. (a) once on Day 1 at a dose of 600 mg to a patient weighing ≥ 5 to < 10 kg, 600 mg to a patient weighing ≥ 10 to < 20 kg, 900 mg to a patient weighing ≥ 20 to < 30 kg, or 1200 mg to a patient weighing ≥ 30 to < 40 kg; and (b) on Day 15 and every four weeks thereafter at a dose of 300 mg to a patient weighing ≥ 5 to < 10 kg or 600 mg to a patient weighing ≥ 10 to < 20 kg; or on Day 15 and every eight weeks thereafter at a dose of 2100 mg to a patient weighing ≥ 20 to < 30 kg, or 2700 mg to a patient weighing ≥ 30 to < 40 kg.