mhurhangee/patent-ind-claim-en huggingface dataset:
A therapeutically effective amount of a composition comprising isolated ADAMTS13 for use in the treatment of a blood clotting disorder in a mammal in need thereof by subcutaneous administration, wherein the therapeutically effective amount of ADAMTS13 is from 20 to 200 activity units per kilogram body weight, and wherein the blood clotting disorder is selected from the group consisting of inherited TTP, acquired TTP, cerebral infarction, myocardial infarction. ischemic/reperfusion injury, deep vein thrombosis, and sepsis-related disseminated intravascular coagulation.
A defibrating device comprising: a main unit with a defibration section (A2) configured to defibrate fibrous material (M2), and a swirl section (A1) configured to produce a rotational air current (RF), and by the rotational air current cause the fibrous material to rotate and flow into the defibration section; the main unit having a magnet unit disposed to the swirl section, and having a magnet for attracting by magnetic force metal fragments (MF) conveyed with the fibrous material to the swirl section. a main unit with a defibration section (A2) configured to defibrate fibrous material (M2), and a swirl section (A1) configured to produce a rotational air current (RF), and by the rotational air current cause the fibrous material to rotate and flow into the defibration section; the main unit having a magnet unit disposed to the swirl section, and having a magnet for attracting by magnetic force metal fragments (MF) conveyed with the fibrous material to the swirl section.
Receptacle for electronic price tags, comprising a rail which has at least two mutually directed projections on a front side, and at least one spring element which is suitable for pushing an electronic price tag from the inside of the rail against the projections , the spring element being in the shape of an L, a plurality of spring elements being connected to one another by means of a common connection , characterised in that the L-shaped spring elements together with the connection substantially result in the shape of a V, in which the longer leg of the L forms one leg of the V, and the other leg of the V rests against the rear wall of the rail in a mounted state.
A system for performing active scanning on a nuclear fuel rod, the system comprising: an electrically-driven neutron generator including an ion source , an accelerator , and a target ; a moderator surrounding the neutron generator and configured to moderate neutrons generated by the neutron generator , thereby generating a predetermined neutron flux; a first fuel rod channel disposed within the moderator , the first fuel rod channel configured to receive a first nuclear fuel rod and subject the first nuclear fuel rod to the predetermined neutron flux, wherein the first fuel rod channel includes an internal epithermal shell having an inner layer and an outer layer , the inner layer being concentric to the outer layer and configured to scatter fast neutrons into an epithermal region, the outer layer being comprised of a burnable poison and configured to absorb thermal neutrons; and a plurality of radiation detectors, wherein the plurality of radiation detectors are configured to detect a neutron-induced secondary radiation of prompt and delayed gamma emissions, neutron emission, or a combination thereof for determining an amount of fissile material in the first nuclear fuel rod and a spatial distribution of the fissile material along a length of the first nuclear fuel rod. an electrically-driven neutron generator including an ion source , an accelerator , and a target ; a moderator surrounding the neutron generator and configured to moderate neutrons generated by the neutron generator , thereby generating a predetermined neutron flux; a first fuel rod channel disposed within the moderator , the first fuel rod channel configured to receive a first nuclear fuel rod and subject the first nuclear fuel rod to the predetermined neutron flux, wherein the first fuel rod channel includes an internal epithermal shell having an inner layer and an outer layer , the inner layer being concentric to the outer layer and configured to scatter fast neutrons into an epithermal region, the outer layer being comprised of a burnable poison and configured to absorb thermal neutrons; and a plurality of radiation detectors, wherein the plurality of radiation detectors are configured to detect a neutron-induced secondary radiation of prompt and delayed gamma emissions, neutron emission, or a combination thereof for determining an amount of fissile material in the first nuclear fuel rod and a spatial distribution of the fissile material along a length of the first nuclear fuel rod.
A surgical device comprising: an optical fiber , wherein the optical fiber comprises a loop and a proximal end, a stem including a lumen, an adjuster , wherein at least a portion of the optical fiber which includes the proximal end is housed within the lumen, characterised in that the adjuster is operably coupled to the proximal end so that the adjuster is configured to adjust a size associated with the loop when the adjuster is moved relative to the stem . an optical fiber , wherein the optical fiber comprises a loop and a proximal end, a stem including a lumen, an adjuster , wherein at least a portion of the optical fiber which includes the proximal end is housed within the lumen, characterised in that the adjuster is operably coupled to the proximal end so that the adjuster is configured to adjust a size associated with the loop when the adjuster is moved relative to the stem .
A method for producing L-amino acids, the method comprising: culturing a microorganism of the genus Escherichia in a media, and recovering L-amino acids from the culture media or the microorganism; wherein the microorganism has an increased intracellular ATP level, compared to an unmodified strain, wherein one or more proteins selected from an amino acid sequence of SEQ ID NO: 5, an amino acid sequence of SEQ ID NO: 6, and an amino acid sequence of SEQ ID NO: 7, which constitute an iron uptake system, are inactivated in the microorganism; wherein the microorganism of the genus Escherichia has an improved ability to produce L-amino acid, compared to an unmodified strain; and wherein the L-amino acid is L-threonine or L-tryptophan. culturing a microorganism of the genus Escherichia in a media, and recovering L-amino acids from the culture media or the microorganism; wherein the microorganism has an increased intracellular ATP level, compared to an unmodified strain, wherein one or more proteins selected from an amino acid sequence of SEQ ID NO: 5, an amino acid sequence of SEQ ID NO: 6, and an amino acid sequence of SEQ ID NO: 7, which constitute an iron uptake system, are inactivated in the microorganism; wherein the microorganism of the genus Escherichia has an improved ability to produce L-amino acid, compared to an unmodified strain; and wherein the L-amino acid is L-threonine or L-tryptophan.
A compound having general Formula I wherein [X] - is a physiologically compatible anion , wherein n is 0 or 1, wherein R1 and R2 are independently of each other, selected from the group comprising hydrogen, hydrogensulfate, phosphate, hydrogen phosphate, dihydrogen phosphate, benzoate, formate, acetate, propionate, butanoate, valerate, silyl, or R1, R2 together hydrogen phosphate, sulfate, methylene, isopropylidene, wherein R3 represents an unbranched, branched or cyclic polyhydroxyl residue with 2-12 carbon atoms and 2-6 OH-groups, or wherein R3 represents an unbranched, branched or cyclic polyhydroxyl residue comprising glyceryl, C 4 -alkyl carrying 3-4 OH-groups, C 6 -alkyl carrying 3-6 OH-groups, monosaccharidyl, disaccharidyl and oligosaccharidyl as well as derivatives of polyhydroxyl compounds, namely acetonides, methylal, carbonates, orthoesters and ethylidene acetal of vicinal OH-groups, a choline residue or 2,3-dihydroxypropyl 2'-trimethylazaniumylethyl phosphate residue and wherein one hydroxyl residue of R3 can be replaced by an ammonium cation. wherein [X] - is a physiologically compatible anion , wherein n is 0 or 1, wherein R1 and R2 are independently of each other, selected from the group comprising hydrogen, hydrogensulfate, phosphate, hydrogen phosphate, dihydrogen phosphate, benzoate, formate, acetate, propionate, butanoate, valerate, silyl, or R1, R2 together hydrogen phosphate, sulfate, methylene, isopropylidene, wherein R3 represents an unbranched, branched or cyclic polyhydroxyl residue with 2-12 carbon atoms and 2-6 OH-groups, or wherein R3 represents an unbranched, branched or cyclic polyhydroxyl residue comprising glyceryl, C 4 -alkyl carrying 3-4 OH-groups, C 6 -alkyl carrying 3-6 OH-groups, monosaccharidyl, disaccharidyl and oligosaccharidyl as well as derivatives of polyhydroxyl compounds, namely acetonides, methylal, carbonates, orthoesters and ethylidene acetal of vicinal OH-groups, a choline residue or 2,3-dihydroxypropyl 2'-trimethylazaniumylethyl phosphate residue and wherein one hydroxyl residue of R3 can be replaced by an ammonium cation.
A translucent colored film structure comprising a colored layer including pigment particles dispersed in a material , an adhesive layer including an adhesive composition, and light-diffusing particles , wherein the following is satisfied: light-diffusing particles are dispersed in the adhesive layer , the light-diffusing particles dispersed in the adhesive layer having a refractive index that is higher than the adhesive composition, wherein the pigment particles have a median largest dimension of from about 0.1 μm to about 3 μm. light-diffusing particles are dispersed in the adhesive layer , the light-diffusing particles dispersed in the adhesive layer having a refractive index that is higher than the adhesive composition, wherein the pigment particles have a median largest dimension of from about 0.1 μm to about 3 μm.
A method, comprising: - capturing a plurality of images of an illuminated (L) environment (A) via long-term observation, wherein said capturing comprises acquiring RGB image pixel intensities and image depth information of the illuminated (L) environment (A), - extracting from said plurality of images comprising depth information of the illuminated (L) environment (A): - a) reflectance information of said environment (A), - b) form factors of said environment (A), and - c) lighting intensity and position information of light sources (L) illuminating said environment (A), - generating, as a function of said reflectance information , said form factors and said lighting intensity and position information , a radiosity model of said environment (A), - solving said radiosity model to produce radiosity values of surface areas across said environment (A), and - mapping said radiosity values to illumination values of said surface areas across said environment (A), - extracting from said plurality of images captured light emittance values, M (x,t) or R (x,t) , as well as albedo values ρ ( x ) of said surface areas across the environment (A), - computing illumination values E (x,t) of said surface areas across the environment (A) as a function of said emittance values and said albedo values ρ (x) . - capturing a plurality of images of an illuminated (L) environment (A) via long-term observation, wherein said capturing comprises acquiring RGB image pixel intensities and image depth information of the illuminated (L) environment (A), - extracting from said plurality of images comprising depth information of the illuminated (L) environment (A): - a) reflectance information of said environment (A), - b) form factors of said environment (A), and - c) lighting intensity and position information of light sources (L) illuminating said environment (A), - a) reflectance information of said environment (A), - b) form factors of said environment (A), and - c) lighting intensity and position information of light sources (L) illuminating said environment (A), - generating, as a function of said reflectance information , said form factors and said lighting intensity and position information , a radiosity model of said environment (A), - solving said radiosity model to produce radiosity values of surface areas across said environment (A), and - mapping said radiosity values to illumination values of said surface areas across said environment (A), - extracting from said plurality of images captured light emittance values, M (x,t) or R (x,t) , as well as albedo values ρ ( x ) of said surface areas across the environment (A), - computing illumination values E (x,t) of said surface areas across the environment (A) as a function of said emittance values and said albedo values ρ (x) .
A particle sensing device comprising: a sensor including a sensing path through which air passes; and a flow path housing which accommodates the sensor and guides air suctioned into the flow path housing from an outside, wherein the flow path housing includes: a first suction path which guides air into the sensing path in a first direction when connected to the sensing path ; and a second suction path which guides air, after changing flow direction inside the flow path housing, to flow in an obliquely upward second direction into the sensing path when connected to the sensing path , and the sensor is rotatably installed and is selectively connected to one of the first suction path and the second suction path according to a rotation angle of the sensor wherein: the first suction path is configured to guide all of the air suctioned from the outside into the sensing path based on the sensor being connected to the first suction path, and the second suction path is configured to guide only a portion of the air suctioned from the outside into the sensing path based on the sensor being connected to the second suction path. a sensor including a sensing path through which air passes; and a flow path housing which accommodates the sensor and guides air suctioned into the flow path housing from an outside, wherein the flow path housing includes: a first suction path which guides air into the sensing path in a first direction when connected to the sensing path ; and a second suction path which guides air, after changing flow direction inside the flow path housing, to flow in an obliquely upward second direction into the sensing path when connected to the sensing path , and a first suction path which guides air into the sensing path in a first direction when connected to the sensing path ; and a second suction path which guides air, after changing flow direction inside the flow path housing, to flow in an obliquely upward second direction into the sensing path when connected to the sensing path , and the sensor is rotatably installed and is selectively connected to one of the first suction path and the second suction path according to a rotation angle of the sensor wherein: the first suction path is configured to guide all of the air suctioned from the outside into the sensing path based on the sensor being connected to the first suction path, and the second suction path is configured to guide only a portion of the air suctioned from the outside into the sensing path based on the sensor being connected to the second suction path. the first suction path is configured to guide all of the air suctioned from the outside into the sensing path based on the sensor being connected to the first suction path, and the second suction path is configured to guide only a portion of the air suctioned from the outside into the sensing path based on the sensor being connected to the second suction path.
Method for controlling a vehicle on a closed site , in particular at a depot , wherein the vehicle has a control unit which is designed to automatically control a braking system and a drive system in the vehicle in order to move the vehicle automatically along a defined path (P), wherein, after determining that no steering system is available in the vehicle that can be controlled via automatically generated steering control signals (SL) in order to automatically influence (ST0) a steering angle (d) of wheels of a steered vehicle axle of the vehicle , at least the following steps are carried out: - defining a path (P) between a starting region and a defined destination region on the closed site (ST1); - generating drive control signals (SA) and steering brake control signals (SBL) such that the vehicle moves from the starting region along the path (P) into the defined destination region with a subsequent automated control of the drive system and the braking system using these control signals (SA, SBL), and the steering angle (d) changes only due to automated control of the brakes of the braking system (ST3). - defining a path (P) between a starting region and a defined destination region on the closed site (ST1); - generating drive control signals (SA) and steering brake control signals (SBL) such that the vehicle moves from the starting region along the path (P) into the defined destination region with a subsequent automated control of the drive system and the braking system using these control signals (SA, SBL), and the steering angle (d) changes only due to automated control of the brakes of the braking system (ST3).
A sintering method for improving the oxidation resistance of nitride-bonded silicon carbide material is characterized in that : introducing pure O 2 or mixed gas containing pure O 2 and H 2 O into a furnace with nitride bonded silicon carbide materials inside it after nitriding and sintering the nitride bonded silicon carbide materials, in order to carry out protective oxidation through "wet oxygen-dry oxygen" process, using a flowmeter to control the flow rate of pure O 2 or mixed gas and the ratio of the mixed gas, and at the same time, observing the height difference of the water column in the U-shaped tube to ensure that the furnace is under a positive pressure, wherein the sintering method comprising following steps: after nitriding and sintering the nitride bonded silicon carbide materials, introducing mixed gas containing pure O 2 and H 2 O at temperature of 1100°C~1400°C, and keeping the temperature for 1-15 hours to carry out "wet oxygen" protective oxidation, then introducing pure O 2 , and keeping the temperature for 1-10 hours to carry out "dry oxygen" protective oxidation, wherein the pure O 2 is dry oxygen gas with oxygen content ≥ 99%, the mixed gas contains 2-98% by volume of pure O 2 and 98-2% by volume of H 2 O (in gas), the pressure range of the positive pressure is 10∼30 mm water column.
A structured illumination imaging system , comprising: a light emitter to emit light; a two-dimensional diffraction grating to diffract light emitted by the light emitter to project a first plurality of fringes oriented in a first direction on a sample plane and to project a second plurality of fringes oriented in a second direction, perpendicular to the first direction, on the sample plane; and a spatial filter wheel to pass through diffracted light received from the two-dimensional diffraction grating in a respective one of the first or second directions and block light in the other respective one of the first or second directions, the spatial filter wheel comprising a first plurality of apertures to pass through light diffracted by the two-dimensional diffraction in the first direction and a second plurality of apertures to pass through light diffracted by the two-dimensional diffraction in the second direction by rotating the wheel; a beam blocking element , positioned between the two-dimensional diffraction grating and the spatial filter wheel , to block 0th order light transmitted by the two-dimensional diffraction grating . a light emitter to emit light; a two-dimensional diffraction grating to diffract light emitted by the light emitter to project a first plurality of fringes oriented in a first direction on a sample plane and to project a second plurality of fringes oriented in a second direction, perpendicular to the first direction, on the sample plane; and a spatial filter wheel to pass through diffracted light received from the two-dimensional diffraction grating in a respective one of the first or second directions and block light in the other respective one of the first or second directions, the spatial filter wheel comprising a first plurality of apertures to pass through light diffracted by the two-dimensional diffraction in the first direction and a second plurality of apertures to pass through light diffracted by the two-dimensional diffraction in the second direction by rotating the wheel; a beam blocking element , positioned between the two-dimensional diffraction grating and the spatial filter wheel , to block 0th order light transmitted by the two-dimensional diffraction grating .
A single chain fusion protein, comprising a hydrophobic portion disposed between an extracellular component and an intracellular component, wherein the extracellular component comprises a plurality of tag cassettes and a connector region comprising a hinge, wherein the intracellular component comprises an effector domain, and wherein each of the plurality of tag cassettes comprises a Strep tag, wherein each Strep tag has streptavidin, streptactin, or both as a cognate binding partner.
A system for capturing, measuring and analyzing rolling stock wheel parameters, comprising: a first flange camera provided between a first rail and a second rail , wherein the first flange camera is positioned to capture an image of at least a portion of a first wheel above the first rail , said first wheel having a flange provided between said first rail and said second rail ; a first inside rim camera provided between said first rail and said second rail , wherein the first inside rim camera is positioned to capture an image of at least a portion of said first wheel; a first outside rim camera provided outside the area between said first rail and said second rail , wherein the first outside rim camera is positioned to capture an image of at least a portion of said first wheel including at least a portion of an internal diameter of said first wheel; at least one strobe light positioned to illuminate at least a portion of said first wheel; and at least one backface illumination plate provided between said first rail and said second rail and positioned to reflect light toward said first wheel. a first flange camera provided between a first rail and a second rail , wherein the first flange camera is positioned to capture an image of at least a portion of a first wheel above the first rail , said first wheel having a flange provided between said first rail and said second rail ; a first inside rim camera provided between said first rail and said second rail , wherein the first inside rim camera is positioned to capture an image of at least a portion of said first wheel; a first outside rim camera provided outside the area between said first rail and said second rail , wherein the first outside rim camera is positioned to capture an image of at least a portion of said first wheel including at least a portion of an internal diameter of said first wheel; at least one strobe light positioned to illuminate at least a portion of said first wheel; and at least one backface illumination plate provided between said first rail and said second rail and positioned to reflect light toward said first wheel.