mhurhangee/ep-ind-claims huggingface dataset:
A method of achieving frame-lock in a memory system having a first memory component and a second memory component coupled to the first memory component, the method characterised by: transmitting patterns of data from the second memory component to the first memory component though a plurality of data lanes, the pattern of data being transmitted in frame packets each of which have a duration of a full unit interval; capturing the transmitted patterns of data at the first memory component; dividing the patterns of data captured on each read lane into a plurality of respective frames; detecting coarse lane-to-lane skew between any of the frames of data captured by the first memory component from respective ones of the data lanes; and using any detected coarse lane-to-lane skew to alter the manner in which data captured by the first memory component are divided into frames. transmitting patterns of data from the second memory component to the first memory component though a plurality of data lanes, the pattern of data being transmitted in frame packets each of which have a duration of a full unit interval; capturing the transmitted patterns of data at the first memory component; dividing the patterns of data captured on each read lane into a plurality of respective frames; detecting coarse lane-to-lane skew between any of the frames of data captured by the first memory component from respective ones of the data lanes; and using any detected coarse lane-to-lane skew to alter the manner in which data captured by the first memory component are divided into frames.
An autonomous driving method, comprising: receiving, by an autonomous driving system, ADS, real-time physiological data of a driver/passenger that is collected by a monitoring device; and degrading, by the ADS, an autonomous driving service that is being executed by an autonomous driving vehicle, when a difference between the real-time physiological data and a health physiological data range is greater than a preset value, and a duration in which the real-time physiological data deviates from the health physiological data range is greater than a first preset duration; and executing, by the ADS, a first driving policy based on the difference and the duration, wherein the health physiological data range is an applicable range added to an operational design domain, ODD, in advance, and the ODD is deployed on the ADS; characterized in that: after the executing, by the ADS, a first driving policy based on the difference and the duration, the method further comprises: sending, by the ADS, an authorization request when the real-time physiological data is not restored to fall within the health physiological data range within a second preset duration; and executing, by the ADS, a second driving policy when the driver/passenger accepts the authorization request. receiving, by an autonomous driving system, ADS, real-time physiological data of a driver/passenger that is collected by a monitoring device; and degrading, by the ADS, an autonomous driving service that is being executed by an autonomous driving vehicle, when a difference between the real-time physiological data and a health physiological data range is greater than a preset value, and a duration in which the real-time physiological data deviates from the health physiological data range is greater than a first preset duration; and executing, by the ADS, a first driving policy based on the difference and the duration, wherein the health physiological data range is an applicable range added to an operational design domain, ODD, in advance, and the ODD is deployed on the ADS; characterized in that: after the executing, by the ADS, a first driving policy based on the difference and the duration, the method further comprises: sending, by the ADS, an authorization request when the real-time physiological data is not restored to fall within the health physiological data range within a second preset duration; and executing, by the ADS, a second driving policy when the driver/passenger accepts the authorization request. sending, by the ADS, an authorization request when the real-time physiological data is not restored to fall within the health physiological data range within a second preset duration; and executing, by the ADS, a second driving policy when the driver/passenger accepts the authorization request.
Process for producing SiOC-linked, linear polydimethylsiloxane-polyoxyalkylene block copolymers of the general formula C-B- a -C1 in which A = a polyoxyalkylene block of the general formula (C n H 2n O) b -, B = a polysiloxane block of the general formula (SiR 2 O) c -, C,C1 = identical or different alkoxypolyoxyalkylene radicals of the general formula Z-O-[CH 2 -CH(R 1)O] d - where Z = an alkyl, alkylene, aryl or alkylaryl radical, or C,C1 = an alkyl radical with the proviso that C or C1 possesses an alkoxypolyoxyalkylene radical of the general formula where Z = hydrogen, or C,C1 = identical or different alkoxypolyoxyalkylene radicals of the general formula where Z = a hydrogen with the proviso that C or C1 possesses an alkoxypolyoxyalkylene radical of the general formula where Z = an alkyl, alkylene, aryl or alkylaryl radical, R = identical or different C 1-4 -alkyl radicals or phenyl radicals with the proviso that at least 90% of the radicals R are methyl radicals, R 1 = identical or different hydrogen radicals, C 1-12 -alkyl radicals or phenyl radicals, a = 1 to 20, b = an average value of from 10 to 130, c = 3 to 100, d = independently of one another in C/C1 values of from 2 to 20 with the proviso that the average value is in the range from 2 to < 15, n = 2 to 12 with an average numerical value of from 2.7 to 4.0, characterized in that end-equilibrated α,ω-diacetoxypolydimethylsiloxanes are reacted with a mixture consisting of at least one polyether polyol, preferably a polyether diol, and at least one polyether monool or at least one monohydric alcohol. A = a polyoxyalkylene block of the general formula (C n H 2n O) b -, B = a polysiloxane block of the general formula (SiR 2 O) c -, C,C1 = identical or different alkoxypolyoxyalkylene radicals of the general formula Z-O-[CH 2 -CH(R 1)O] d - where Z = an alkyl, alkylene, aryl or alkylaryl radical, or C,C1 = an alkyl radical with the proviso that C or C1 possesses an alkoxypolyoxyalkylene radical of the general formula where Z = hydrogen, or C,C1 = identical or different alkoxypolyoxyalkylene radicals of the general formula where Z = a hydrogen with the proviso that C or C1 possesses an alkoxypolyoxyalkylene radical of the general formula where Z = an alkyl, alkylene, aryl or alkylaryl radical, R = identical or different C 1-4 -alkyl radicals or phenyl radicals with the proviso that at least 90% of the radicals R are methyl radicals, R 1 = identical or different hydrogen radicals, C 1-12 -alkyl radicals or phenyl radicals, a = 1 to 20, b = an average value of from 10 to 130, c = 3 to 100, d = independently of one another in C/C1 values of from 2 to 20 with the proviso that the average value is in the range from 2 to < 15, n = 2 to 12 with an average numerical value of from 2.7 to 4.0, characterized in that end-equilibrated α,ω-diacetoxypolydimethylsiloxanes are reacted with a mixture consisting of at least one polyether polyol, preferably a polyether diol, and at least one polyether monool or at least one monohydric alcohol.
A composition comprising: i) a delivery vehicle substrate selected from the group consisting of scaffolding, matrix, particle and fiber; and ii) a micro-aggregate multi-cellular functional unit obtained by: a) processing an isolated living mammalian skin tissue by separating fat and hypodermal elements from the isolated living mammalian skin tissue to prepare an excised mammalian tissue; and b) sectioning the excised mammalian tissue to generate a micro-aggregate multi-cellular functional unit capable of regenerating skin tissue that includes a sectioned epidermal compartment, a sectioned dermal compartment, and a sectioned follicular compartment comprising living LGR-expressing cells. i) a delivery vehicle substrate selected from the group consisting of scaffolding, matrix, particle and fiber; and ii) a micro-aggregate multi-cellular functional unit obtained by: a) processing an isolated living mammalian skin tissue by separating fat and hypodermal elements from the isolated living mammalian skin tissue to prepare an excised mammalian tissue; and b) sectioning the excised mammalian tissue to generate a micro-aggregate multi-cellular functional unit capable of regenerating skin tissue that includes a sectioned epidermal compartment, a sectioned dermal compartment, and a sectioned follicular compartment comprising living LGR-expressing cells. a) processing an isolated living mammalian skin tissue by separating fat and hypodermal elements from the isolated living mammalian skin tissue to prepare an excised mammalian tissue; and b) sectioning the excised mammalian tissue to generate a micro-aggregate multi-cellular functional unit capable of regenerating skin tissue that includes a sectioned epidermal compartment, a sectioned dermal compartment, and a sectioned follicular compartment comprising living LGR-expressing cells.
Method for winding a take-up bobbin, whereby in an initial phase of the bobbin build the winding is carried out using a target value for the winding speed which is reduced from a target value for the winding speed after the end of the initial phase characterised in that the length of the initial phase of the bobbin build and the target values for the winding speed in the initial phase and after the end of the initial phase are determined in such a way that the take-up bobbin rotational speed does not exceed a predetermined maximum target value throughout the bobbin build.
An assembly comprising an upstream pipe, a downstream pipe, and a system for measuring variation in gas content within a two-phase flow, said system comprising: • an insulating sheath presenting an upstream end and a downstream end; and • an upstream ground made in conductive material, a measurement electrode, a guard electrode, and a downstream ground made in conductive material arranged in succession in said insulating sheath and each presenting an identical internal section defining an internal flow duct for a two-phase flow from the upstream ground towards the downstream ground, the guard electrode being configured so as to be subjected to the same potential as the measurement electrode, the measurement electrode being configured so as to measure the capacitance of the medium constituting the two-phase flow relative to the upstream ground, and to measure variation of that capacitance; the assembly being characterized in that: • said upstream and downstream pipes present an internal section identical to the internal section of said measurement system; • said upstream and downstream pipes are in fluid flow connection with each other via the measurement system so that the internal duct of the measurement system extends the internal ducts of the upstream and downstream pipes; and • the upstream ground and the downstream ground are electrically connected to the upstream pipe and to the downstream pipe, respectively; said assembly further comprising a processor unit configured to process the capacitance measurements taken between the measurement electrode and the upstream ground. • an insulating sheath presenting an upstream end and a downstream end; and • an upstream ground made in conductive material, a measurement electrode, a guard electrode, and a downstream ground made in conductive material arranged in succession in said insulating sheath and each presenting an identical internal section defining an internal flow duct for a two-phase flow from the upstream ground towards the downstream ground, the guard electrode being configured so as to be subjected to the same potential as the measurement electrode, the measurement electrode being configured so as to measure the capacitance of the medium constituting the two-phase flow relative to the upstream ground, and to measure variation of that capacitance; • said upstream and downstream pipes present an internal section identical to the internal section of said measurement system; • said upstream and downstream pipes are in fluid flow connection with each other via the measurement system so that the internal duct of the measurement system extends the internal ducts of the upstream and downstream pipes; and • the upstream ground and the downstream ground are electrically connected to the upstream pipe and to the downstream pipe, respectively; said assembly further comprising a processor unit configured to process the capacitance measurements taken between the measurement electrode and the upstream ground.
A surgery-assistance apparatus adapted to determine an excision region including an abnormal region of an organ to be removed, the apparatus comprising: a medical image obtainment means adapted to obtain a medical image representing the organ; an organ region extraction means adapted to extract a region of the organ from the obtained medical image; an abnormal region extraction means adapted to extract the abnormal region from the extracted region of the organ; an enclosing body setting means adapted to set a smallest enclosing body that encloses the extracted abnormal region; and a structure region extraction means adapted to extract a region of a structure dominating the organ from the obtained medical image; characterized by a partial region extraction means adapted to extract, as a partial region, a part of the organ, and the part belonging to the inside of an elliptic parabolic surface or a circular conic surface that circumscribes the set enclosing body; a dominance region extraction means adapted to extract, as a dominance region, a part of the organ, and the part including the abnormal region and being dominated by a part of the structure extending from a predetermined position in the extracted region of the structure toward the part of the organ including the abnormal region; and an excision region determination means adapted to determine, based on a predetermined excision region determination condition, the partial region extracted by the partial region extraction means or the dominance region extracted by the dominance region extraction means, as the excision region. a medical image obtainment means adapted to obtain a medical image representing the organ; an organ region extraction means adapted to extract a region of the organ from the obtained medical image; an abnormal region extraction means adapted to extract the abnormal region from the extracted region of the organ; an enclosing body setting means adapted to set a smallest enclosing body that encloses the extracted abnormal region; and a structure region extraction means adapted to extract a region of a structure dominating the organ from the obtained medical image; characterized by a partial region extraction means adapted to extract, as a partial region, a part of the organ, and the part belonging to the inside of an elliptic parabolic surface or a circular conic surface that circumscribes the set enclosing body; a dominance region extraction means adapted to extract, as a dominance region, a part of the organ, and the part including the abnormal region and being dominated by a part of the structure extending from a predetermined position in the extracted region of the structure toward the part of the organ including the abnormal region; and an excision region determination means adapted to determine, based on a predetermined excision region determination condition, the partial region extracted by the partial region extraction means or the dominance region extracted by the dominance region extraction means, as the excision region.
A Ni-Cr-Co-based alloy having high-temperature corrosion resistance, comprising: 40.0 to 50.0 mass% of Cr; 10.0 to 20.0 mass% of Co; 0.5 to 5.0 mass% of Nb; 0.01 to 5.0 mass% of Fe; 0.1 to 3.0 mass% of Si; and optionally further comprising one or more elements selected from Mo, W, Mn, Ti, Al, and B in a total amount of 5.0 mass% or less, the content of each of Ti and Al being 3.0 mass% or less, and the content of B being 1.0 mass% or less, the remainder being 26.0 to 40.0 mass% of Ni and unavoidable impurities. 40.0 to 50.0 mass% of Cr; 10.0 to 20.0 mass% of Co; 0.5 to 5.0 mass% of Nb; 0.01 to 5.0 mass% of Fe; 0.1 to 3.0 mass% of Si; and optionally further comprising one or more elements selected from Mo, W, Mn, Ti, Al, and B in a total amount of 5.0 mass% or less, the content of each of Ti and Al being 3.0 mass% or less, and the content of B being 1.0 mass% or less, the remainder being 26.0 to 40.0 mass% of Ni and unavoidable impurities.
A method for establishing a radio bearer in a User Equipment, UE, in a mobile communication system, wherein an entity of a specific protocol layer has both a transmitting side and a receiving side, the method being characterized by comprising: receiving configuration information about the specific protocol layer, wherein the configuration information includes first size information indicating a size of a Sequences Number, SN, in a downlink data block and second size information indicating a size of the SN in an uplink data block 1; and configuring a downlink data block format and an uplink data block format separately for the entity of the specific protocol layer according to the received first and second size information. receiving configuration information about the specific protocol layer, wherein the configuration information includes first size information indicating a size of a Sequences Number, SN, in a downlink data block and second size information indicating a size of the SN in an uplink data block 1; and configuring a downlink data block format and an uplink data block format separately for the entity of the specific protocol layer according to the received first and second size information.
A therapeutically effective amount of a nanoemulsion-based vaccine for use in the treatment or prevention of an allergic disease in a subject by multiple intranasal administration only.
A method comprising: receiving data indicative of cleaning fluid flow at a printing apparatus; determining, from the received data, a cleaning fluid flow rate; comparing the determined cleaning fluid flow rate to a desired flow rate; and, when the cleaning fluid flow rate is outside of a tolerance of the desired flow rate, comparing the determined cleaning fluid flow rate to a first range of flow rates; and, when the flow rate is inside of the first range of flow rates, changing a parameter of a component of the printing apparatus that affects cleaning fluid flow rate, in real-time during a print operation, to cause the cleaning fluid flow rate to approach the desired flow rate, and, otherwise changing a parameter of a component of the printing apparatus that affects flow rate during a pause or a stop in a print operation to cause the cleaning fluid flow rate to approach the desired flow rate. receiving data indicative of cleaning fluid flow at a printing apparatus; determining, from the received data, a cleaning fluid flow rate; comparing the determined cleaning fluid flow rate to a desired flow rate; and, when the cleaning fluid flow rate is outside of a tolerance of the desired flow rate, comparing the determined cleaning fluid flow rate to a first range of flow rates; and, when the flow rate is inside of the first range of flow rates, changing a parameter of a component of the printing apparatus that affects cleaning fluid flow rate, in real-time during a print operation, to cause the cleaning fluid flow rate to approach the desired flow rate, and, otherwise changing a parameter of a component of the printing apparatus that affects flow rate during a pause or a stop in a print operation to cause the cleaning fluid flow rate to approach the desired flow rate.
A method of configuring a random access resource, the method being performed by a terminal and comprising: receiving configuration information of a Physical Random Access Channel, PRACH, resource transmitted by a network node; wherein the configuration information is configured to indicate a PRACH transmission resource reserved by the network node for the terminal and used to transmit a beam failure recovery request, characterized in that, after receiving the configuration information of the PRACH resource transmitted by the network node, the method further comprises: receiving, from the network node, a release instruction used to release the PRACH resource. receiving configuration information of a Physical Random Access Channel, PRACH, resource transmitted by a network node; wherein the configuration information is configured to indicate a PRACH transmission resource reserved by the network node for the terminal and used to transmit a beam failure recovery request, characterized in that, after receiving the configuration information of the PRACH resource transmitted by the network node, the method further comprises: receiving, from the network node, a release instruction used to release the PRACH resource.
A polyamide multifilament having a tensile strength at 15% elongation of 4.0-6.0 cN/dtex, a strength-elongation product of 10.0 or larger, and a yarn unevenness (U%) of 1.2 or less, wherein the tensile strength at 15% elongation is measured in accordance with JIS L1013-2010, Tensile Strength and Elongation, with a constant-rate extension type tester, a chuck-to-chuck distance of 50 cm, and a stretching speed of 50 cm/min, and is represented by equation as "15% strength", wherein the strength-elongation product is represented by equation, wherein the yarn unevenness (U%) is measured by use of USTER TESTER IV, manufactured by Zellweger Uster AG, under conditions of: sample length, 500 m; test yarn speed V, 100 m/min; twister, type S at 30,000 /min; and 1/2 Inert, 15 % strength = measured tensile strength at 15 % elongation cN / fineness dtex strength − elongation product = strength cN / dtex × elongation % + 100 / 100 wherein the tensile strength at 15% elongation is measured in accordance with JIS L1013-2010, Tensile Strength and Elongation, with a constant-rate extension type tester, a chuck-to-chuck distance of 50 cm, and a stretching speed of 50 cm/min, and is represented by equation as "15% strength", wherein the strength-elongation product is represented by equation, wherein the yarn unevenness (U%) is measured by use of USTER TESTER IV, manufactured by Zellweger Uster AG, under conditions of: sample length, 500 m; test yarn speed V, 100 m/min; twister, type S at 30,000 /min; and 1/2 Inert, 15 % strength = measured tensile strength at 15 % elongation cN / fineness dtex strength − elongation product = strength cN / dtex × elongation % + 100 / 100
Granules containing Mesalazine as Active Pharmaceutical Ingredient, said granules consisting of API in mixture with a dried gelled composition in a ratio from 97:3 to 99:1, referred to the dry portion of the composition; said granules being obtained by extrusion, spheronization and drying of a mixture of the API with a gelled composition consisting of a mixture of 5-10% Polyvinyl pyrrolidone, 20-40% Polysorbate and 45-75% Water, where % refers to the percentages by weight with respect to the total weight of the gelled composition.