mhurhangee/ep-ind-claims huggingface dataset:
Motor vehicle door lock arrangement with a motor vehicle lock, wherein a force transmission chain is provided and wherein an actuation movement may be transmitted via the force transmission chain for opening of the motor vehicle lock, wherein a crash coupling arrangement is provided between two force transmission chain sections (5a, 5b), which comprises a coupling element in the form of a coupling spring element, wherein the coupling spring element can be brought into a coupling state, coupling the two force transmission chain sections (5a, 5b), and into a decoupling state, decoupling the two force transmission chain sections (5a, 5b), wherein the crash coupling arrangement comprises a first link element assigned to one force transmission chain section and a second link element assigned to the other force transmission chain section, wherein, preferably, the link elements (8, 9) are moveable along a longitudinal extension of movement, wherein the coupling spring element for coupling the two force transmission chain sections (5a, 5b) may come into coupling engagement with at least one of the link elements (8, 9), wherein an inertial characteristic of the coupling spring element causes the coupling spring element to fall into or to remain in the decoupling state, when the actuation movement surpasses a rapidity threshold, and causes the coupling spring element to fall into or to remain in the coupling state, when the actuation movement is below the rapidity threshold.
A process for producing a pharmaceutical composition, the process comprising the steps of: (a) forming a solution comprising a drug, an excipient and a solvent; (b) atomizing said solution into droplets and removing at least a portion of said solvent from said droplets so as to form at least partially non-crystalline drug-containing particles, wherein said drug-containing particles contain less than 10 wt% of said solvent; and (c) drying said drug-containing particles by the steps of: (i) introducing said drug-containing particles into a drying chamber having an external wall; (ii) circulating said drug-containing particles within said drying chamber by means of a mechanical agitator independent of said wall; (iii) flowing a stripping gas through said drying chamber and simultaneously maintaining a total pressure within said drying chamber that is less than 0.75 atm; and (iv) removing said stripping gas and at least a portion of said solvent from said drying chamber. (a) forming a solution comprising a drug, an excipient and a solvent; (b) atomizing said solution into droplets and removing at least a portion of said solvent from said droplets so as to form at least partially non-crystalline drug-containing particles, wherein said drug-containing particles contain less than 10 wt% of said solvent; and (c) drying said drug-containing particles by the steps of: (i) introducing said drug-containing particles into a drying chamber having an external wall; (ii) circulating said drug-containing particles within said drying chamber by means of a mechanical agitator independent of said wall; (iii) flowing a stripping gas through said drying chamber and simultaneously maintaining a total pressure within said drying chamber that is less than 0.75 atm; and (iv) removing said stripping gas and at least a portion of said solvent from said drying chamber. (i) introducing said drug-containing particles into a drying chamber having an external wall; (ii) circulating said drug-containing particles within said drying chamber by means of a mechanical agitator independent of said wall; (iii) flowing a stripping gas through said drying chamber and simultaneously maintaining a total pressure within said drying chamber that is less than 0.75 atm; and (iv) removing said stripping gas and at least a portion of said solvent from said drying chamber.
A method of identifying or quantifying a risk for reactivation of a latent virus in an immune-compromised mammalian subject, the method comprising: detecting or measuring expression of IL-2, IFNγ, TNFα, and MIP-1β in individual T cells from a sample of T cells from an immune-compromised mammalian subject by measuring mRNA encoding the cytokines in the T cells, or measuring cytokine proteins on or in the T cells; and identifying or quantifying a risk for reactivation of a latent virus in the immune-compromised mammalian subject, from measurements of a T cell subset from a sample isolated from the subject, wherein the T cell subset is identifiable from a cytokine expression profile of cytokines interleukin-2 (IL-2), interferon gamma (IFNγ), tumor necrosis factor alpha (TNFα), and macrophage inflammatory protein 1β (MIP-1β). detecting or measuring expression of IL-2, IFNγ, TNFα, and MIP-1β in individual T cells from a sample of T cells from an immune-compromised mammalian subject by measuring mRNA encoding the cytokines in the T cells, or measuring cytokine proteins on or in the T cells; and identifying or quantifying a risk for reactivation of a latent virus in the immune-compromised mammalian subject, from measurements of a T cell subset from a sample isolated from the subject, wherein the T cell subset is identifiable from a cytokine expression profile of cytokines interleukin-2 (IL-2), interferon gamma (IFNγ), tumor necrosis factor alpha (TNFα), and macrophage inflammatory protein 1β (MIP-1β).
A surgical bur comprising: a plurality of flutes, wherein each of the plurality of flutes comprises a cutting edge, a plurality of rake surfaces (184, 185) and a clearance surface, wherein the plurality of rake surfaces of one of the plurality of flutes includes at least a first rake surface and a second rake surface, the first rake surface has a first distinct surface, the second rake surface has a second distinct surface, the first rake surface and the second rake surface are distinct from the clearance surface; and a plurality of lands, each of the plurality of lands is disposed between a pair of the plurality of flutes; characterised in that a) the first rake surface and the second rake surface are decoupled from each other or b) a second rake angle of the second rake surface is decoupled from a first rake angle of the first rake surface or c) the first rake surface and the second rake surface are decoupled from each other and a second rake angle of the second rake surface is decoupled from a first rake angle of the first rake surface; and in that the one of the plurality of flutes comprises a decoupling area; and the decoupling area is located between the first rake surface and the second rake surface of the one of the plurality of flutes. a plurality of flutes, wherein each of the plurality of flutes comprises a cutting edge, a plurality of rake surfaces (184, 185) and a clearance surface, wherein the plurality of rake surfaces of one of the plurality of flutes includes at least a first rake surface and a second rake surface, the first rake surface has a first distinct surface, the second rake surface has a second distinct surface, the first rake surface and the second rake surface are distinct from the clearance surface; and the plurality of rake surfaces of one of the plurality of flutes includes at least a first rake surface and a second rake surface, the first rake surface has a first distinct surface, the second rake surface has a second distinct surface, the first rake surface and the second rake surface are distinct from the clearance surface; and a plurality of lands, each of the plurality of lands is disposed between a pair of the plurality of flutes; characterised in that a) the first rake surface and the second rake surface are decoupled from each other or b) a second rake angle of the second rake surface is decoupled from a first rake angle of the first rake surface or c) the first rake surface and the second rake surface are decoupled from each other and a second rake angle of the second rake surface is decoupled from a first rake angle of the first rake surface; and in that the one of the plurality of flutes comprises a decoupling area; and the decoupling area is located between the first rake surface and the second rake surface of the one of the plurality of flutes.
A method for automation of a controller comprising: recording a timeline pattern based on a record of events, wherein the events are sporadic events detected by a sensor; establishing a marker to delineate phase transitions of the pattern from one mode to the next on the timeline pattern based on the record of events; adjusting the marker to approximate location consistency of the events in the timeline; computing a weight for the marker that reflects time consistency of the events, the marker being more heavily weighted for consistently timed transitions, the computing comprising assigning the weight to the marker based on a proximity of one or more events occurring within a time range of the marker; and triggering output based on the weighted marker to adjust settings of the controller. recording a timeline pattern based on a record of events, wherein the events are sporadic events detected by a sensor; establishing a marker to delineate phase transitions of the pattern from one mode to the next on the timeline pattern based on the record of events; adjusting the marker to approximate location consistency of the events in the timeline; computing a weight for the marker that reflects time consistency of the events, the marker being more heavily weighted for consistently timed transitions, the computing comprising assigning the weight to the marker based on a proximity of one or more events occurring within a time range of the marker; and triggering output based on the weighted marker to adjust settings of the controller.
A wholly aromatic liquid crystalline polyester resin compound comprising, a first wholly aromatic liquid crystalline polyester resin with a low melting point, a second wholly aromatic liquid crystalline polyester resin with a high melting point, and an additive, wherein the amount of the first wholly aromatic liquid crystalline polyester resin is 5 to less than 10 parts by weight with respect to 100 parts by weight of the second wholly aromatic liquid crystalline polyester resin, wherein melting points of the first and second wholly aromatic liquid crystalline polyester resins are 310 to 320°C and 360 to 375°C, wherein the melting points of the first and second wholly aromatic liquid crystalline polyester resins are measured by using Differential Scanning Calorimetry.
Method for trenchlessly laying a cable or pipe in the ground, having the steps of: producing one or more multi-function holes which each extend from the surface as far as an intersection with a drilling line which is provided for laying the cable or pipe, and therebeyond, and carrying out a directed horizontal hole along the drilling line using drilling fluid which is supplied under pressure, wherein the one or more multi-function hole(s) is/are produced between a starting point of the directed horizontal hole and a target of the directed horizontal hole, wherein, with corresponding drilling progress, drilling fluid is discharged from the drill hole produced by the horizontal hole through at least one of the multi-function holes, wherein the method further involves drawing the pipe or cable into the drill hole produced. producing one or more multi-function holes which each extend from the surface as far as an intersection with a drilling line which is provided for laying the cable or pipe, and therebeyond, and carrying out a directed horizontal hole along the drilling line using drilling fluid which is supplied under pressure, wherein the one or more multi-function hole(s) is/are produced between a starting point of the directed horizontal hole and a target of the directed horizontal hole, wherein, with corresponding drilling progress, drilling fluid is discharged from the drill hole produced by the horizontal hole through at least one of the multi-function holes, wherein the method further involves drawing the pipe or cable into the drill hole produced.
Motor vehicle lock with a door or flap featuring a lock with a locking mechanism comprising a rotary latch and at least one pawl for latching the rotary latch, which has a blocking surface, with a blocking lever for blocking the pawl in the main ratchet position, which has a blocking surface which in the blocked state engages with the blocking surface of the pawl, with a blocking lever axis and pawl axis arranged above a rotary latch axis, wherein in a horizontal position of the vehicle gravity alone would cause the blocking lever to be oriented so as not to be in the blocking position, in which the blocking lever blocks the pawl in the main ratchet position by means of a blocking lever arm, and the pawl would be oriented so that it would not be in the main ratchet position, while the blocking lever is shaped in such a way that gravity alone and relative to the blocking lever axis, a release arm of the blocking lever generates a lower torque than the blocking lever arm of the blocking lever which is able to block the pawl, while this torque difference around the blocking lever axis and the associated arrangement of the center of mass with or in the blocking lever arm causes only the gravity of the blocking lever arm together with the blocking surface of the blocking lever aligns downward, thereby preventing the blocking lever from reaching the blocking position.
A computer- implemented image restoration method comprising: acquiring a plurality of pieces of input image information, wherein the plurality of pieces of input image information comprise a plurality of input images captured by using lenses located in different positions; generating, with respect to each of a plurality of disparities, a plurality of pieces of warped image information based on the plurality of pieces of input image information; and generating an output image based on the plurality of pieces of input image information and the plurality of pieces of warped image information, by using an image restoration model (340, 640) being a neural network comprising at least one convolution layer configured to apply a convolution filtering to input data, wherein the generating of the plurality of pieces of warped image information comprises generating, with respect to each of the plurality of disparities, a plurality of warped images, as the plurality of pieces of warped image information, by warping each of the plurality of input images to a pixel coordinate system corresponding to a target image based on a depth corresponding to each of the plurality of disparities, the target image being one of the plurality of input images, and said plurality of disparities being a finite number of disparities, and wherein the generating of the output image comprises generating the output image by providing, as an input to the neural network, data obtained by concatenating the plurality of input images and the plurality of warped images corresponding to each of the plurality of disparities. acquiring a plurality of pieces of input image information, wherein the plurality of pieces of input image information comprise a plurality of input images captured by using lenses located in different positions; generating, with respect to each of a plurality of disparities, a plurality of pieces of warped image information based on the plurality of pieces of input image information; and generating an output image based on the plurality of pieces of input image information and the plurality of pieces of warped image information, by using an image restoration model (340, 640) being a neural network comprising at least one convolution layer configured to apply a convolution filtering to input data, wherein the generating of the plurality of pieces of warped image information comprises generating, with respect to each of the plurality of disparities, a plurality of warped images, as the plurality of pieces of warped image information, by warping each of the plurality of input images to a pixel coordinate system corresponding to a target image based on a depth corresponding to each of the plurality of disparities, the target image being one of the plurality of input images, and said plurality of disparities being a finite number of disparities, and wherein the generating of the output image comprises generating the output image by providing, as an input to the neural network, data obtained by concatenating the plurality of input images and the plurality of warped images corresponding to each of the plurality of disparities.
A fully differential transimpedance amplifier (100; 200), comprising: - two input contacts (101, 102) for receiving input currents (I in, I inb); - a differential converter for converting the input currents (I in, I inb) into output voltages (V o, V ob); - two output contacts (103, 104) for outputting the output voltages (V o, V ob); - a common mode adjustment loop for adjusting the common mode potential of the two input contacts (101, 102); and - a differential mode adjustment loop for adjusting the differential mode potential of the two input contacts (101, 102) to cancel a residual offset between the output voltages (V o, V ob). - two input contacts (101, 102) for receiving input currents (I in, I inb); - a differential converter for converting the input currents (I in, I inb) into output voltages (V o, V ob); - two output contacts (103, 104) for outputting the output voltages (V o, V ob); - a common mode adjustment loop for adjusting the common mode potential of the two input contacts (101, 102); and - a differential mode adjustment loop for adjusting the differential mode potential of the two input contacts (101, 102) to cancel a residual offset between the output voltages (V o, V ob).
A toner comprising from 12 to 14 wt%, based on the total solids, of a needle-shaped high strength magnetite having a coercivity of from 63.66·10 3 to 79.58·10 3 A/m (800 to 1000 Oe), wherein said magnetite comprises a material selected from the group consisting of FeO, Fe 2 O 3, Fe 3 O 4, gamma iron oxides, cobalt-gamma iron oxides, and mixtures thereof.
A method for determining a sequence of a biomolecule, the method comprising the steps of: (a) identifying a set of k-1-length subsequences that represent a plurality of substrings of a sequence string s of the biomolecule; (b) for each of the k-1-length subsequences, identifying a pool of probes comprising four different k-mer extensions of the k-1-length subsequence; (c) for each pool identified in step (b): (i) hybridizing the biomolecule with the four k-mer probes making up the pool; and (ii) detecting relative positions of the k-mer probes that have attached to the biomolecule; and (d) ordering the subsequences corresponding to the detected attached probes to determine the sequence string s of the biomolecule. (a) identifying a set of k-1-length subsequences that represent a plurality of substrings of a sequence string s of the biomolecule; (b) for each of the k-1-length subsequences, identifying a pool of probes comprising four different k-mer extensions of the k-1-length subsequence; (c) for each pool identified in step (b): (i) hybridizing the biomolecule with the four k-mer probes making up the pool; and (ii) detecting relative positions of the k-mer probes that have attached to the biomolecule; and (i) hybridizing the biomolecule with the four k-mer probes making up the pool; and (ii) detecting relative positions of the k-mer probes that have attached to the biomolecule; and (d) ordering the subsequences corresponding to the detected attached probes to determine the sequence string s of the biomolecule.
A product container comprising: a housing defining a hollow interior; and a closure coupled to the housing such that the closure covers an opening to the hollow interior, wherein the closure comprises a textured thermoplastic elastomer on at least a portion of the closure, wherein the thermoplastic elastomer comprises one or more projections extending therefrom, characterized in that the thermoplastic elastomer is hydrophilic and polar. a housing defining a hollow interior; and a closure coupled to the housing such that the closure covers an opening to the hollow interior, wherein the closure comprises a textured thermoplastic elastomer on at least a portion of the closure, wherein the thermoplastic elastomer comprises one or more projections extending therefrom, characterized in that the thermoplastic elastomer is hydrophilic and polar.
A method of producing lavandulal by making an acetal compound represented by the following formula react with 3-methyl-1-butene-3-ol in the presence of an acid catalyst, the method comprising: adding, to a liquid mixture comprising an acid catalyst, an acetal compound represented by the following formula, and 3-methyl-1-butene-3-ol in at least a portion of an amount to be used (3-methyl-1-butene-3-ol (a)), 3-methyl-1-butene-3-ol in the other portion of the amount to be used (3-methyl-1-butene-3-ol (b)); and maintaining the liquid mixture at a temperature of 110°C or higher: wherein each R in the formula represents an alkyl group. adding, to a liquid mixture comprising an acid catalyst, an acetal compound represented by the following formula, and 3-methyl-1-butene-3-ol in at least a portion of an amount to be used (3-methyl-1-butene-3-ol (a)), 3-methyl-1-butene-3-ol in the other portion of the amount to be used (3-methyl-1-butene-3-ol (b)); and maintaining the liquid mixture at a temperature of 110°C or higher:
A method of repairing a superalloy gas turbine component using a ternary near eutectic filler alloy comprising nickel, titanium and chromium, wherein said nickel is present in said filler alloy in an amount in the range from 55 to 65 weight percent of said filler alloy, said titanium is present in said filler alloy in an amount in the range from 15 to 25 weight percent of said filler alloy, and said chromium is present in said filler alloy in an amount in the range from 15 to 25 weight percent of said filler alloy, wherein no boron is present in said filler alloy, wherein said superalloy gas turbine component is made from the superalloy 247C, wherein said method comprises: a) cleaning the area of said superalloy gas turbine component to be repaired and filling said area with a mixture of said filler alloy and the superalloy 247C; and b) solution heat treating said superalloy gas turbine component and said mixture above the melting point of said filler alloy to homogenize and fuse said area. a) cleaning the area of said superalloy gas turbine component to be repaired and filling said area with a mixture of said filler alloy and the superalloy 247C; and b) solution heat treating said superalloy gas turbine component and said mixture above the melting point of said filler alloy to homogenize and fuse said area.