mhurhangee/ep-ind-claims huggingface dataset:
A stable formulation comprising a recombinant adeno-associated virus (rAAV) particle and a) Tris, b) a sugar, and c) an amorphous salt, wherein the formulation is suitable for lyophilization; and wherein the rAAV particle comprises an AAV8 capsid protein. a) Tris, b) a sugar, and c) an amorphous salt, wherein the formulation is suitable for lyophilization; and wherein the rAAV particle comprises an AAV8 capsid protein.
A modular tile system comprising a plurality of modular tile elements and connecting means for releasable engagement of one tile element with another tile element, each modular tile element comprising: a central main body comprising side parts, the central main body being provided with elongated protrusions extending in an outward direction from said body along some or all of said side parts for releasable engagement with at least one other modular tile element, a notch provided at each longitudinal end of said protrusions characterised in that said protrusions are separated from said central main body by embossments along said side parts of the central main body, whereby the protrusions become substantially rectilinearly pivotable along said embossment, and in that said connecting means are formed as an elongated, resilient body (13, 14) comprising an inner open region substantially corresponding to said embossments, a central region, and longitudinal end portions, where the central region of said elongated body is resilient, and the longitudinal end portions of said body are made of a substantially rigid material, whereby said connecting means for said modular tile system are shaped for connecting said tile elements along said embossments and said notches bordering said protrusions. a central main body comprising side parts, the central main body being provided with elongated protrusions extending in an outward direction from said body along some or all of said side parts for releasable engagement with at least one other modular tile element, a notch provided at each longitudinal end of said protrusions characterised in that said protrusions are separated from said central main body by embossments along said side parts of the central main body, whereby the protrusions become substantially rectilinearly pivotable along said embossment, and in that said connecting means are formed as an elongated, resilient body (13, 14) comprising an inner open region substantially corresponding to said embossments, a central region, and longitudinal end portions, where the central region of said elongated body is resilient, and the longitudinal end portions of said body are made of a substantially rigid material, whereby said connecting means for said modular tile system are shaped for connecting said tile elements along said embossments and said notches bordering said protrusions.
Process for producing a structure on a to-be-processed contour of a part via the application of a laser beam, characterised in that - the contour subject to processing has at least one filling and an additional fill element, - whereby the filling is at least in part composed of filling lines, - whereby the filling lines and the additional fill element are created by the laser beam, whereby a plurality of parallel guides is arranged in the at least one filling, along which the fill lines of such filling primarily extend, whereby the guides, that may be generated virtually or physically, are lines that form a pattern within the filling, the fill lines have an additional starting point offset in x and/or y direction (sx, sy) as well as an additional angle offset (a) opposite the guides. - the contour subject to processing has at least one filling and an additional fill element, - whereby the filling is at least in part composed of filling lines, - whereby the filling lines and the additional fill element are created by the laser beam,
Method for operating a conductivity sensor comprising at least two measuring electrodes (14, 15), wherein furthermore an electrolytic water treatment device is operated, characterized in that during a cleaning operation of the conductivity sensor, a direct voltage U RB is applied to the measuring electrodes (14, 15) of the conductivity sensor such that during cleaning operation, an electrolytic current is applied to the measuring electrodes (14, 15) of the conductivity sensor, wherein the measuring electrodes (14, 15) of the conductivity sensor are switched as anode against at least one further electrode, that the at least one further electrode, against which the measuring electrodes (14, 15) are switched during cleaning operation of the conductivity sensor, is not a measuring electrode (14, 15) of the conductivity sensor but an electrode of the electrolytic water treatment device, and that the direct voltage applied during cleaning operation is larger than the decomposition voltage of water.
A strain of unicellular red algae Cyanidioschyzon merolae, deposited on 25 th October 2019 in accordance with the requirements of The Budapest treaty in Banco Español de Algas, Las Palmas, Spain, under the number BEA_IDA 0073B.
A combustion assembly for a gas turbine comprising a flame tube and fuel supply means including a flow rate limiter supplying an injector, wherein the flow rate limiter and the fuel injector are formed in one piece, characterised in that the flow rate limiter comprises a first fuel conduit and a second fuel conduit each comprising a succession of chambers which are interconnected by reduced section portions, the first conduit and the second conduit being connected to a fuel inlet, the first conduit opening downstream into a first channel of the fuel injector and the second conduit opening downstream into a second channel of the injector.
A cooking appliance comprising: a light-emitting device; a body having a cooking chamber defined therein and an opening provided at one side of the body; and a door for opening and closing the opening of the cooking chamber, characterized in that the light-emitting device comprises: a light-emitting member being disposed adjacent to a gap defined between an edge portion of the door and a portion of a front face of the body, being configured to emit light of a predetermined color in a response to a preset operation state of the cooking appliance; and a reflective portion being disposed at the portion of the front face of the body to extend therefrom, wherein the reflective portion is configured to guide light emitted from the light-emitting member to be directed outwards from the edge portion of the door; wherein the light-emitting member is disposed at one side of the door, adjacent to the gap; and wherein the body has a front channel defined in the front face of the body, below the reflective portion, for guiding a cooling gas introduced into an upper space in the body to be discharged through the front channel to the gap.
A concentric slave cylinder for a vehicle, having: a piston element for a concentric slave cylinder for engaging and disengaging a clutch device, comprising a body having a first portion for sealing a pressure chamber and having a second portion for contacting a release bearing device, wherein the body of the piston element comprises a centring device in order to centre the piston element within a pressure chamber of a housing element of a concentric slave cylinder, a housing element comprising at least one pressure chamber (22, 23), wherein the piston element is arranged with its first portion within the at least one pressure chamber, characterised in that the at least one centring device comprises at least one centring rib, which is designed in a ramp shape and is arranged on the outside or inside of the first portion and/or the second portion, in a first state, at or above the operating temperature of the piston element, the piston element together with the centring device is designed to have an external diameter that is slightly smaller than the internal diameter of the at least one pressure chamber, whereby the piston element is centrable relative to the at least one pressure chamber by the centring device, and in a second state, below the operating temperature of the piston element, the piston element together with the centring device is designed to have an external diameter that is smaller than the internal diameter of the at least one pressure chamber in the first operating state, whereby the piston element loses its centring properties. a piston element for a concentric slave cylinder for engaging and disengaging a clutch device, comprising a body having a first portion for sealing a pressure chamber and having a second portion for contacting a release bearing device, wherein the body of the piston element comprises a centring device in order to centre the piston element within a pressure chamber of a housing element of a concentric slave cylinder, a housing element comprising at least one pressure chamber (22, 23), wherein the piston element is arranged with its first portion within the at least one pressure chamber, characterised in that the at least one centring device comprises at least one centring rib, which is designed in a ramp shape and is arranged on the outside or inside of the first portion and/or the second portion, in a first state, at or above the operating temperature of the piston element, the piston element together with the centring device is designed to have an external diameter that is slightly smaller than the internal diameter of the at least one pressure chamber, whereby the piston element is centrable relative to the at least one pressure chamber by the centring device, and in a second state, below the operating temperature of the piston element, the piston element together with the centring device is designed to have an external diameter that is smaller than the internal diameter of the at least one pressure chamber in the first operating state, whereby the piston element loses its centring properties.
A conversion device comprising: a waveform-data-string storage unit that stores therein a waveform data string including a plurality of digital values; a control-data storage unit in which operation-mode specifying data that specifies an operation mode and update request data are written; a digital-value output unit that, when the operation-mode specifying data specifies a first operation mode, while sequentially updating an address to be read in the waveform-data-string storage unit to an address where a subsequent digital value is stored for each output period set in advance, sequentially reads and outputs the digital value that constitutes the waveform data string from the address to be read for the each output period and that, when the operation-mode specifying data specifies a second operation mode, for each time the update request data is written, reads out the digital value that constitutes the waveform data string from the address to be read in the waveform-data-string storage unit and outputs the digital value as well as updates the address to be read next; and a D/A conversion unit that converts the digital value output by the digital-value output unit into an analog value. a waveform-data-string storage unit that stores therein a waveform data string including a plurality of digital values; a control-data storage unit in which operation-mode specifying data that specifies an operation mode and update request data are written; a digital-value output unit that, when the operation-mode specifying data specifies a first operation mode, while sequentially updating an address to be read in the waveform-data-string storage unit to an address where a subsequent digital value is stored for each output period set in advance, sequentially reads and outputs the digital value that constitutes the waveform data string from the address to be read for the each output period and that, when the operation-mode specifying data specifies a second operation mode, for each time the update request data is written, reads out the digital value that constitutes the waveform data string from the address to be read in the waveform-data-string storage unit and outputs the digital value as well as updates the address to be read next; and a D/A conversion unit that converts the digital value output by the digital-value output unit into an analog value.
A method comprising, by a processor: receiving one or more images of a biological growth medium; identifying a first number of bacterial colonies in an interior portion of the biological growth medium; identifying a second number bacterial colonies in a perimeter portion of the biological growth medium, wherein the perimeter portion of the biological growth medium is adjacent to the interior portion of the biological growth medium; and flagging the biological growth medium for additional review if the second number is greater than a factor multiplied by the first number. receiving one or more images of a biological growth medium; identifying a first number of bacterial colonies in an interior portion of the biological growth medium; identifying a second number bacterial colonies in a perimeter portion of the biological growth medium, wherein the perimeter portion of the biological growth medium is adjacent to the interior portion of the biological growth medium; and flagging the biological growth medium for additional review if the second number is greater than a factor multiplied by the first number.
A titanium plate comprising a chemical composition comprising: in mass%, Fe: 0.00 to 0.20%; O: 0.00 to 0.12%; N: 0.00 to 0.08%; C: 0.00 to 0.10%; H: 0.000 to 0.013%; Al: 0.00 to 0.50%; Cu: 0.00 to 0.50%; Si: 0.00 to 0.30%; Cr: 0.00 to 0.50%; Ni: 0.00 to 0.50%; Mo: 0.00 to 0.50%; V: 0.00 to 0.50%; Nb: 0.00 to 0.50%; Sn: 0.00 to 0.50%; Co: 0.00 to 0.50%; Zr: 0.00 to 0.50%; Mn: 0.00 to 0.50%; Ta: 0.00 to 0.50%; W: 0.00 to 0.50%; Hf: 0.00 to 0.50%; Pd: 0.00 to 0.50%; Ru: 0.00 to 0.50%; and the balance: Ti and impurities, wherein an arithmetic mean roughness Ra of a surface is 0.05 μm or more and 0.40 μm or less, the surface has titanium carbide regarding which a ratio between a total sum of integrated intensities Ic derived from the titanium carbide and a total sum of integrated intensities Im of all diffraction peaks derived from the titanium carbide and titanium obtained from X-ray diffractometry ((Ic/Im) × 100) is 0.8% or more and 5.0% or less, a number density of asperities on the surface is 30 to 100 pieces/mm, and an average spacing of the asperities is 20 μm or less, wherein the arithmetic mean roughness Ra of the surface, the ratio between Ic and Im ((Ic/Im) × 100), the number density of asperities on the surface, and the average spacing of the asperities are measured with the respective method as disclosed in the description. in mass%, Fe: 0.00 to 0.20%; O: 0.00 to 0.12%; N: 0.00 to 0.08%; C: 0.00 to 0.10%; H: 0.000 to 0.013%; Al: 0.00 to 0.50%; Cu: 0.00 to 0.50%; Si: 0.00 to 0.30%; Cr: 0.00 to 0.50%; Ni: 0.00 to 0.50%; Mo: 0.00 to 0.50%; V: 0.00 to 0.50%; Nb: 0.00 to 0.50%; Sn: 0.00 to 0.50%; Co: 0.00 to 0.50%; Zr: 0.00 to 0.50%; Mn: 0.00 to 0.50%; Ta: 0.00 to 0.50%; W: 0.00 to 0.50%; Hf: 0.00 to 0.50%; Pd: 0.00 to 0.50%; Ru: 0.00 to 0.50%; and the balance: Ti and impurities, wherein an arithmetic mean roughness Ra of a surface is 0.05 μm or more and 0.40 μm or less, the surface has titanium carbide regarding which a ratio between a total sum of integrated intensities Ic derived from the titanium carbide and a total sum of integrated intensities Im of all diffraction peaks derived from the titanium carbide and titanium obtained from X-ray diffractometry ((Ic/Im) × 100) is 0.8% or more and 5.0% or less, a number density of asperities on the surface is 30 to 100 pieces/mm, and an average spacing of the asperities is 20 μm or less, wherein the arithmetic mean roughness Ra of the surface, the ratio between Ic and Im ((Ic/Im) × 100), the number density of asperities on the surface, and the average spacing of the asperities are measured with the respective method as disclosed in the description.
A method of performing a diagnostic test on a refrigerant system, comprising: pre-charging a first service hose with a first predetermined amount of refrigerant from a storage tank of a refrigerant recovery unit before performing the diagnostic test, wherein the first predetermined amount is based on an ambient temperature; pre-charging a second service hose with a second predetermined amount of refrigerant from the storage tank of the refrigerant recovery unit before performing the diagnostic test, wherein the second predetermined amount is based on the ambient temperature; measuring a pre-recovery amount of refrigerant in the storage tank; recovering refrigerant from the refrigerant system into the storage tank using the first service hose and the second service hose after measuring the pre-recovery amount; measuring a post-recovery amount of refrigerant in the storage tank after recovering the refrigerant with a scale of the refrigerant recovery unit; and determining, with a processor of the refrigerant recovery unit, a recovered amount of refrigerant, wherein the recovered amount of refrigerant is determined by subtracting the amount of refrigerant stored in the storage tank before the recovery process plus the amount of refrigerant pre-charged into the first service hose and the second service hose from the amount of refrigerant stored in the storage tank after the recovery process. pre-charging a first service hose with a first predetermined amount of refrigerant from a storage tank of a refrigerant recovery unit before performing the diagnostic test, wherein the first predetermined amount is based on an ambient temperature; pre-charging a second service hose with a second predetermined amount of refrigerant from the storage tank of the refrigerant recovery unit before performing the diagnostic test, wherein the second predetermined amount is based on the ambient temperature; measuring a pre-recovery amount of refrigerant in the storage tank; recovering refrigerant from the refrigerant system into the storage tank using the first service hose and the second service hose after measuring the pre-recovery amount; measuring a post-recovery amount of refrigerant in the storage tank after recovering the refrigerant with a scale of the refrigerant recovery unit; and determining, with a processor of the refrigerant recovery unit, a recovered amount of refrigerant, wherein the recovered amount of refrigerant is determined by subtracting the amount of refrigerant stored in the storage tank before the recovery process plus the amount of refrigerant pre-charged into the first service hose and the second service hose from the amount of refrigerant stored in the storage tank after the recovery process.
A polymeric sheet comprising: a first polymeric layer; and a second foamed layer; wherein the first polymeric layer comprises a first additive composition that allows for a light transmission of greater than or equal to 75%; the first additive composition comprising an additive; the additive being a light scattering additive, a pigment, an optical brightener, an ultraviolet absorbing additive or a combination comprising at least one of the foregoing additives; the first polymeric layer being in operative communication with the second foamed layer; the polymeric sheet having a percent light transmission as measured according to ASTM D 1003 of 3% to 80% at a thickness of greater than or equal to 1,000 micrometers. a first polymeric layer; and a second foamed layer; wherein the first polymeric layer comprises a first additive composition that allows for a light transmission of greater than or equal to 75%; the first additive composition comprising an additive; the additive being a light scattering additive, a pigment, an optical brightener, an ultraviolet absorbing additive or a combination comprising at least one of the foregoing additives; the first polymeric layer being in operative communication with the second foamed layer; the polymeric sheet having a percent light transmission as measured according to ASTM D 1003 of 3% to 80% at a thickness of greater than or equal to 1,000 micrometers.
A method for detecting a vehicle, the method comprising: a) receiving images continuously captured by a front-facing camera; b) setting a search area of the vehicle in a target image based on a location of the vehicle detected in a previous image among the continuously captured images; c) detecting the vehicle in the search area using a machine learning model; and d) if the vehicle detection using the machine learning model fails to recognize the vehicle, continuing vehicle detection by tracking the vehicle using a feature point of the vehicle, wherein the feature point is extracted from the search area of the previous image; and e) tracking the feature point extracted from the search area of the previous image using an optical flow in the target image to recognize a vehicle; f) wherein the detecting further comprises obtaining a motion vector of the feature points of the vehicle from a plurality of previous images and generating a modified search area based on the motion vectors and the search area, and comprises detecting the vehicle from the modified search area according to the machine learning model. a) receiving images continuously captured by a front-facing camera; b) setting a search area of the vehicle in a target image based on a location of the vehicle detected in a previous image among the continuously captured images; c) detecting the vehicle in the search area using a machine learning model; and d) if the vehicle detection using the machine learning model fails to recognize the vehicle, continuing vehicle detection by tracking the vehicle using a feature point of the vehicle, wherein the feature point is extracted from the search area of the previous image; and e) tracking the feature point extracted from the search area of the previous image using an optical flow in the target image to recognize a vehicle; f) wherein the detecting further comprises obtaining a motion vector of the feature points of the vehicle from a plurality of previous images and generating a modified search area based on the motion vectors and the search area, and comprises detecting the vehicle from the modified search area according to the machine learning model.
A solid composition of water-soluble fertiliser compound containing N, P and K as essential elements and in the form of homogeneous granules comprising an acid-base reaction product and each of identical composition, characterized in that this reaction product derived from reaction between phosphoric acid, nitric acid, potassium hydroxide and ammonia contains a mixed salt of ammonium-potassium nitrate meeting formula (NH 4) x K y (NO 3) z wherein x = 0.75, y = 0.25 and z = 1.00.
A crankcase door for covering an opening in a wall of the crankcase of an internal combustion engine, the crankcase door comprising a frame, which is made of aluminum, aluminum alloy or steel, the frame being attachable to the crankcase and defining the outer periphery of the crankcase door, the frame forming at least one opening within the area defined by the frame, characterized in that the frame comprises a shoulder on the inner periphery of the frame and the crankcase door comprises a plate that is made at least partly of a sheet material, has a thickness of 1-4 mm and lies on the shoulder of the frame and is attached to the frame for covering the opening, wherein the plate has a sandwich structure comprising at least two support layers (2a, 2c) and at least one dampening layer that is made of a dampening material and arranged between the support layers (2a, 2c).
A peptide for an inhibition of protein aggregation having the Formula 1, Ac-SACNHHHHLHCGG, wherein C at 3 rd position and 11 th position is selected from the group consisting of cysteine or cystine.