mhurhangee/ep-ind-claims huggingface dataset:
A film dosage composition comprising: a. a polymeric carrier matrix; b. a therapeutically effective amount of buprenorphine or a pharmaceutically acceptable salt thereof; c. a therapeutically effective amount of naloxone or a pharmaceutically acceptable salt thereof; and d. a buffer in an amount to provide a local pH of said composition of a value sufficient to optimize absorption of said buprenorphine wherein the composition has a local pH of 2 to 4. a. a polymeric carrier matrix; b. a therapeutically effective amount of buprenorphine or a pharmaceutically acceptable salt thereof; c. a therapeutically effective amount of naloxone or a pharmaceutically acceptable salt thereof; and d. a buffer in an amount to provide a local pH of said composition of a value sufficient to optimize absorption of said buprenorphine wherein the composition has a local pH of 2 to 4.
A printing device comprising: an internal supply of colorant that is permanently affixed within the printing device so as to be non-removable from the device, the internal supply of colorant further being non-refillable; an inkjet printhead to form images on media using the internal supply of colorant; a print cartridge in which the inkjet printhead is disposed and that is configured to use the internal supply of colorant to form the images on the media, the internal supply of colorant being external to the print cartridge; and a mechanism receptive to insertion of the print cartridge. an internal supply of colorant that is permanently affixed within the printing device so as to be non-removable from the device, the internal supply of colorant further being non-refillable; an inkjet printhead to form images on media using the internal supply of colorant; a print cartridge in which the inkjet printhead is disposed and that is configured to use the internal supply of colorant to form the images on the media, the internal supply of colorant being external to the print cartridge; and a mechanism receptive to insertion of the print cartridge.
A system for detecting tissue inflammation, the system comprising: a light emitter configured to emit light towards tissue; at least one light detector configured to detect diffuse reflective light reflected from said tissue; and a controller comprising a tissue inflammation detection unit configured to analyze the detected diffuse reflective light in its spectral components, said tissue inflammation detection unit configured to: determine a tissue contribution from a first wavelength region of a diffuse reflective spectroscopy signal where the diffuse reflective spectroscopy signal is dominated by tissue; extrapolate the tissue contribution according to a predetermined wavelength-dependent function to a second wavelength region where the diffuse reflective spectroscopy signal comprises at least one detectable hemoglobin absorption feature; subtract the extrapolated tissue contribution from the diffuse reflective spectroscopy signal at the second wavelength region to obtain a blood contribution; and determine the degree of tissue inflammation from the blood contribution. a light emitter configured to emit light towards tissue; at least one light detector configured to detect diffuse reflective light reflected from said tissue; and a controller comprising a tissue inflammation detection unit configured to analyze the detected diffuse reflective light in its spectral components, said tissue inflammation detection unit configured to: determine a tissue contribution from a first wavelength region of a diffuse reflective spectroscopy signal where the diffuse reflective spectroscopy signal is dominated by tissue; extrapolate the tissue contribution according to a predetermined wavelength-dependent function to a second wavelength region where the diffuse reflective spectroscopy signal comprises at least one detectable hemoglobin absorption feature; subtract the extrapolated tissue contribution from the diffuse reflective spectroscopy signal at the second wavelength region to obtain a blood contribution; and determine the degree of tissue inflammation from the blood contribution. determine a tissue contribution from a first wavelength region of a diffuse reflective spectroscopy signal where the diffuse reflective spectroscopy signal is dominated by tissue; extrapolate the tissue contribution according to a predetermined wavelength-dependent function to a second wavelength region where the diffuse reflective spectroscopy signal comprises at least one detectable hemoglobin absorption feature; subtract the extrapolated tissue contribution from the diffuse reflective spectroscopy signal at the second wavelength region to obtain a blood contribution; and determine the degree of tissue inflammation from the blood contribution.
An assembly for deploying an implant into an aneurysm, comprising: a tubular member having (a) a member lumen in the tubular member and (b) an opening at a distal end portion of the tubular member; a coil implant configured for placement into an aneurysm and having (a) a coil; (b) a coil lumen extending longitudinally within the coil; and (c) a securing member (i) extending within the coil lumen, (ii) coupled to the coil at a distal region of the securing member, and (iii) having an enlarged proximal portion larger than, and positioned distal to, the opening; an elongate member extending in the member lumen, through the opening, and coupled to the enlarged portion; a stop element, coupled to the elongate member and residing in the member lumen, the stop element having a cross-section that is generally larger than the opening so that the stop element is prevented or hindered from passing through the opening; and wherein the enlarged portion has a cross-section that is generally larger than the opening so that the enlarged portion is prevented or hindered from passing through the opening; the assembly being configured such that proximal movement of the elongate member relative to the distal end portion results in the enlarged portion contacting the distal end portion and separating from the elongate member, and distal movement of the elongate member relative to the distal end portion results in the stop element contacting the distal end portion. a tubular member having (a) a member lumen in the tubular member and (b) an opening at a distal end portion of the tubular member; a coil implant configured for placement into an aneurysm and having (a) a coil; (b) a coil lumen extending longitudinally within the coil; and (c) a securing member (i) extending within the coil lumen, (ii) coupled to the coil at a distal region of the securing member, and (iii) having an enlarged proximal portion larger than, and positioned distal to, the opening; an elongate member extending in the member lumen, through the opening, and coupled to the enlarged portion; a stop element, coupled to the elongate member and residing in the member lumen, the stop element having a cross-section that is generally larger than the opening so that the stop element is prevented or hindered from passing through the opening; and wherein the enlarged portion has a cross-section that is generally larger than the opening so that the enlarged portion is prevented or hindered from passing through the opening; the assembly being configured such that proximal movement of the elongate member relative to the distal end portion results in the enlarged portion contacting the distal end portion and separating from the elongate member, and distal movement of the elongate member relative to the distal end portion results in the stop element contacting the distal end portion.
A method for aligning a sample in a charged particle beam system comprising: loading a sample into a vacuum chamber having a charged particle beam; and placing the sample under said charged particle beam; characterized by: selecting an area of the sample to orient; guiding said charged particle beam (202, 805) to at least two different spots (802, 803, 804) on the sample surface (201, 801) in said area; focusing the charged particle beam on said at least two different spots; determining the distance of each of said spots from a fixed point (206, 305, 306) that is substantially eucentric to an objective lens of the charged particle beam system; and using the distances of each spot to orient the sample so that the sample is aligned normal to the charged particle beam. loading a sample into a vacuum chamber having a charged particle beam; and placing the sample under said charged particle beam; characterized by: selecting an area of the sample to orient; guiding said charged particle beam (202, 805) to at least two different spots (802, 803, 804) on the sample surface (201, 801) in said area; focusing the charged particle beam on said at least two different spots; determining the distance of each of said spots from a fixed point (206, 305, 306) that is substantially eucentric to an objective lens of the charged particle beam system; and using the distances of each spot to orient the sample so that the sample is aligned normal to the charged particle beam. selecting an area of the sample to orient; guiding said charged particle beam (202, 805) to at least two different spots (802, 803, 804) on the sample surface (201, 801) in said area; focusing the charged particle beam on said at least two different spots; determining the distance of each of said spots from a fixed point (206, 305, 306) that is substantially eucentric to an objective lens of the charged particle beam system; and using the distances of each spot to orient the sample so that the sample is aligned normal to the charged particle beam.
A biological state determination device which is mounted in a vehicle and determines a biological state of a driver, the biological state determination device comprising: a plurality of state estimation means (2A, 2B, 2C) for estimating a driver biological state, which is the biological state of the driver, on the basis of information representing the biological state of the driver; weight setting means (3A, 3B, 3C) for setting a weight for each driver biological state on the basis of information representing the level of possibility of erroneously estimating the driver biological state which information representing the level of possibility is obtained on the basis of the information representing the biological state of the driver; weighting means (4A, 4B, 4C) for weighting a plurality of driver biological states using the weight set by the weight setting means (3A, 3B, 3C); and state determination means for determining the presence/absence of abnormality in the biological state of the driver on the basis of a plurality of driver biological states weighted by the weighting means (4A, 4B, 4C) wherein the state estimation means (2A, 2B, 2C) estimates the presence/absence of sleepiness in the driver as the biological state of the driver, and the state determination means determines, as an abnormality, a state where the driver feels sleepiness, and until a predetermined time set in advance elapses from the start of driving, the weight setting means (3A, 3B, 3C) sets the weight on the basis of the ratio of the time for which the state estimation means (2A, 2B, 2C) estimates that the driver feels sleepiness with respect to the predetermined time. a plurality of state estimation means (2A, 2B, 2C) for estimating a driver biological state, which is the biological state of the driver, on the basis of information representing the biological state of the driver; weight setting means (3A, 3B, 3C) for setting a weight for each driver biological state on the basis of information representing the level of possibility of erroneously estimating the driver biological state which information representing the level of possibility is obtained on the basis of the information representing the biological state of the driver; weighting means (4A, 4B, 4C) for weighting a plurality of driver biological states using the weight set by the weight setting means (3A, 3B, 3C); and state determination means for determining the presence/absence of abnormality in the biological state of the driver on the basis of a plurality of driver biological states weighted by the weighting means (4A, 4B, 4C) wherein the state estimation means (2A, 2B, 2C) estimates the presence/absence of sleepiness in the driver as the biological state of the driver, and the state determination means determines, as an abnormality, a state where the driver feels sleepiness, and until a predetermined time set in advance elapses from the start of driving, the weight setting means (3A, 3B, 3C) sets the weight on the basis of the ratio of the time for which the state estimation means (2A, 2B, 2C) estimates that the driver feels sleepiness with respect to the predetermined time.
Pump system with rotary valve comprising a pump with a variable volume pump chamber that allows to store liquid between a drawing in phase and subsequent expulsion phase, and a valve, the valve including a rotor comprising a rotor body and at least one rotor fluid channel, a stator (18, 18') comprising a stator body and a plurality of stator fluid channels connected to fluid ports mounted on the stator body coupled to respective fluid supply and delivery lines, the fluid ports arranged in a circumferentially spaced apart manner around the rotor, the stator body comprising a valve bearing surface and the rotor body comprising a complementary valve bearing surface slidably engaging the stator valve bearing surface, the rotor fluid channels comprise at least one rotor input fluid channel having an input end at said bearing surface of the rotor and an output end in fluid communication with the pump chamber, and at least one rotor output fluid channel distinct from the rotor input fluid channel and having an input end in fluid communication with said pump chamber and an output end at said valve bearing surface of the rotor body, the rotor input fluid channel configured for fluid communication with at least a first of said stator fluid channels at a first relative angular position of the rotor with respect to the stator, and the rotor output fluid channel configured for fluid communication with at least a second of said stator fluid channels at a second relative angular position of the rotor with respect to the stator, the second relative angular position being different from the first relative angular position, wherein the output end of the rotor input fluid channel and the input end of the rotor output fluid channel are at an axial end face of the rotor that bounds the variable volume pump chamber or is separated by a separating wall portion from the variable volume pump chamber, characterized in that the pump system further comprises an electrical actuator coupled to the rotor, and a position sensing system comprising a position detector mounted in the stator and complementary sensor position markers mounted in the rotor.
Method for filling foodstuffs comprising a predetermined proportion of pieces of filling in liquid characterized in that said pieces of filling are charged into a hopper, said liquid is during the filling process added in the lower region of said hopper und the mixed foodstuff is conveyed from said hopper and filled.
A medical connector comprising: a connector body defining an interior space; and a membrane body having a first end having a convex surface and a second end with a sidewall extending between the first end and the second end of the membrane body, the sidewall defining an annular recess, the second end of the membrane body defining a cavity that extends toward the first end of the body, the annular recess configured to receive a portion of the connector body, wherein an inside corner of the annular recess is radiused, an annular projection extends away from the second end of the membrane body, and the cavity is tapered such that the cavity narrows as it extends toward the first end of the membrane body, and wherein the membrane body is secured to the connector body via an interference fit, and wherein a portion of the membrane body is received within the interior space of the connector body, wherein the connector body includes a projection extending into the interior space of the connector body, the projection of the connector body is received within the annular recess of the membrane body. a connector body defining an interior space; and a membrane body having a first end having a convex surface and a second end with a sidewall extending between the first end and the second end of the membrane body, the sidewall defining an annular recess, the second end of the membrane body defining a cavity that extends toward the first end of the body, the annular recess configured to receive a portion of the connector body, wherein an inside corner of the annular recess is radiused, an annular projection extends away from the second end of the membrane body, and the cavity is tapered such that the cavity narrows as it extends toward the first end of the membrane body, and wherein the membrane body is secured to the connector body via an interference fit, and wherein a portion of the membrane body is received within the interior space of the connector body, wherein the connector body includes a projection extending into the interior space of the connector body, the projection of the connector body is received within the annular recess of the membrane body.
A compressor, in particular a high-pressure compressor, of a gas turbine, in particular of a gas turbine aircraft engine, having at least one rotor-side moving blade ring and at least one stator-side guide blade ring, wherein the or each guide blade ring is formed from a plurality of guide blade segments, and wherein each guide blade segment is formed from a plurality of individual blades, wherein inside each guide blade segment of at least one guide blade ring adjacent individual blades (11, 12; 12, 13; 13, 14) on radially outer, opposing surfaces are permanently connected to one another, whereas said individual blades on radially inner, opposing surfaces are not connected to one another, characterized in that the adjacent individual blades (11, 12; 12, 13; 13, 14) in the region of an outer shroud band are permanently soldered to one another on opposing surfaces.
Apparatus for use in sensing temperature in a wellbore, comprising: tubing being metallic tubing, comprising a plurality of temperature sensor modules (120a, 120b, 120c... 120n) provided at locations along the inside of the tubing, said temperature sensor modules (120a, 120b, 120c... 120n) comprising temperature sensors provided at least in part by at least one semiconductor element having electrical properties that vary with temperature; an electrical network configured to electrically connect to the semiconductor elements to in use allow measuring of the respective electrical properties of the semiconductor elements to infer a thermal characteristic of the semiconductor element; and at least one control module electrically connected to multiple temperature sensor modules (120a, 120b, 120c... 120n), via the electrical network, and configured to receive and process an electrical signal associated with the temperature sensor modules (120a, 120b, 120c... 120n) to enable inference of the temperature of the semiconductor elements and the environment to which the tubing is exposed at the location of that semiconductor element; wherein the control module further comprises a common reference signal generator used as a reference for the measurement of the voltage and/or current of at least two or each of the temperature sensor modules (120a, 120b, 120c... 120n). tubing being metallic tubing, comprising a plurality of temperature sensor modules (120a, 120b, 120c... 120n) provided at locations along the inside of the tubing, said temperature sensor modules (120a, 120b, 120c... 120n) comprising temperature sensors provided at least in part by at least one semiconductor element having electrical properties that vary with temperature; an electrical network configured to electrically connect to the semiconductor elements to in use allow measuring of the respective electrical properties of the semiconductor elements to infer a thermal characteristic of the semiconductor element; and at least one control module electrically connected to multiple temperature sensor modules (120a, 120b, 120c... 120n), via the electrical network, and configured to receive and process an electrical signal associated with the temperature sensor modules (120a, 120b, 120c... 120n) to enable inference of the temperature of the semiconductor elements and the environment to which the tubing is exposed at the location of that semiconductor element; wherein the control module further comprises a common reference signal generator used as a reference for the measurement of the voltage and/or current of at least two or each of the temperature sensor modules (120a, 120b, 120c... 120n).
An autostereoscopic display device comprising: - a display panel having an array of pixels, wherein the pixels are arranged in rows and columns and wherein each of the pixels comprises at least four sub-pixels including sub-pixels of at least three different colors; - a lenticular array arranged over the display panel for projecting a plurality of views in different directions towards a user, and comprising lenticular lenses to project outputs of groups of the sub-pixels into the plurality of views projected towards a user in different directions, thereby enabling autostereoscopic imaging, wherein the lenticular lenses have a long axis which is slanted at an angle θ to the general column pixel direction, and have a pitch P L, wherein each pixel has a width in the general row direction of p x and a height in the general column direction of p y, and wherein tan θ = ap x bp y wherein the rows of pixels are parallel to the display top edge horizontal and the columns of pixels are parallel to the display side edge, and wherein a and b are positive integer numbers, P L = n 1 n 2 ⋅ p x with n 1 and n 2 being positive integer numbers, characterised in that n 1 /n 2 is non integer, and a b = 2 q ⋅ m wherein q is the number of different color sub-pixels per pixel, and m being a positive integer number. - a display panel having an array of pixels, wherein the pixels are arranged in rows and columns and wherein each of the pixels comprises at least four sub-pixels including sub-pixels of at least three different colors; - a lenticular array arranged over the display panel for projecting a plurality of views in different directions towards a user, and comprising lenticular lenses to project outputs of groups of the sub-pixels into the plurality of views projected towards a user in different directions, thereby enabling autostereoscopic imaging, wherein the lenticular lenses have a long axis which is slanted at an angle θ to the general column pixel direction, and have a pitch P L,
A mixture comprising: - gold particles, and - graphene particles or a derivative thereof or mixtures thereof, and a linker binding said gold particles to said graphene particles or derivative thereof or mixtures thereof, wherein said linker is alpha lipoic acid, for use in the treatment and/or prevention of urogenital tract infections, wherein said derivative is graphene oxide. - gold particles, and - graphene particles or a derivative thereof or mixtures thereof, and a linker binding said gold particles to said graphene particles or derivative thereof or mixtures thereof, wherein said linker is alpha lipoic acid, for use in the treatment and/or prevention of urogenital tract infections, wherein said derivative is graphene oxide.
A mixture of human milk oligosaccharides (HMOs) consisting essentially of: - 3'-O-sialyllactose (3'-SL), - a component A which is 3-O-fucosyllactose (3-FL) or lacto-N-tetraose, and - a component B which is 3-O-fucosyl-3'-O-sialyllactose when component A is 3-FL or sialyllacto-N-tetraose a (LST-a) when component A is LNT. - 3'-O-sialyllactose (3'-SL), - a component A which is 3-O-fucosyllactose (3-FL) or lacto-N-tetraose, and - a component B which is 3-O-fucosyl-3'-O-sialyllactose when component A is 3-FL or sialyllacto-N-tetraose a (LST-a) when component A is LNT.