mhurhangee/ep-ind-claims huggingface dataset:
A drug dispenser comprising: - a container having a plurality of individual compartments arranged in the container so as to define a series of columns and/or rows, - a plurality of drug holding drawers slidably insertable in a respective compartment, each drawer being particularly adapted to receive within it one or more drugs to be dispensed, - a lock mechanism for retaining each drawer within the respective compartment, wherein the lock mechanism comprises a magnet arranged on the drawer and a metal element arranged in the container at the compartment, said drug dispenser being characterised in that it comprises a sensor mechanism (60, 70), said sensor mechanism comprising the magnet arranged on the drawer and a proximity sensor arranged at a respective compartment and activatable by said magnet. - a container having a plurality of individual compartments arranged in the container so as to define a series of columns and/or rows, - a plurality of drug holding drawers slidably insertable in a respective compartment, each drawer being particularly adapted to receive within it one or more drugs to be dispensed, - a lock mechanism for retaining each drawer within the respective compartment, wherein the lock mechanism comprises a magnet arranged on the drawer and a metal element arranged in the container at the compartment, said drug dispenser being characterised in that it comprises a sensor mechanism (60, 70), said sensor mechanism comprising the magnet arranged on the drawer and a proximity sensor arranged at a respective compartment and activatable by said magnet.
A process of producing a ZSM-23 molecular sieve, the process comprising: (a) preparing a mixture capable of forming said molecular sieve, said mixture comprising sources of alkali or alkaline earth metal, an oxide of trivalent element, an oxide of tetravalent element, water and a directing agent of the formula (CH 3) 3 N + CH 2 CH 2 CH 2 N + (CH 3) 2 CH 2 CH 2 CH 2 N + (CH 3) 3, and having a composition, in terms of mole ratios, within the following ranges: YO 2 /X 2 O 3 from 25 to less than 30 H 2 O/YO 2 10 to 50 OH - /YO 2 0.1 to less than 0.5 M/YO 2 0.1 to 0.4 R/YO 2 0.01 to less than 0.3; wherein X is aluminum and Y is silicon, (b) maintaining said mixture under sufficient conditions including a temperature of from 160°C to 180°C for a duration of from 72 hours to 200 hours to produce an ZSM-23 molecular sieve having a silica to alumina ratio of from 25 to less than 30 that is separated from the mixture and recovered. (a) preparing a mixture capable of forming said molecular sieve, said mixture comprising sources of alkali or alkaline earth metal, an oxide of trivalent element, an oxide of tetravalent element, water and a directing agent of the formula (CH 3) 3 N + CH 2 CH 2 CH 2 N + (CH 3) 2 CH 2 CH 2 CH 2 N + (CH 3) 3, and having a composition, in terms of mole ratios, within the following ranges: YO 2 /X 2 O 3 from 25 to less than 30 H 2 O/YO 2 10 to 50 OH - /YO 2 0.1 to less than 0.5 M/YO 2 0.1 to 0.4 R/YO 2 0.01 to less than 0.3; wherein X is aluminum and Y is silicon, (b) maintaining said mixture under sufficient conditions including a temperature of from 160°C to 180°C for a duration of from 72 hours to 200 hours to produce an ZSM-23 molecular sieve having a silica to alumina ratio of from 25 to less than 30 that is separated from the mixture and recovered.
A process for the preparation of N,N'-bis-(2,3-dihydroxypropyl)-5-hydroxy-2,4,6-triiodo-1,3-benzenedicarboxamide, comprising the steps of a) dissolving N,N'-(2,3-dihydroxypropyl)-5-hydroxy-1,3-benzenedicarboxamide in a reaction medium in the presence of molecular iodine (I 2) and b) iodinating said compound with molecular iodine (I 2) to obtain said compound, wherein the reaction medium is an aqueous solution and molecular iodine (I 2) is in situ electrochemically generated from a source of iodide ions (I -). a) dissolving N,N'-(2,3-dihydroxypropyl)-5-hydroxy-1,3-benzenedicarboxamide in a reaction medium in the presence of molecular iodine (I 2) and b) iodinating said compound with molecular iodine (I 2) to obtain said compound,
A computer-implemented method of determining electrical anisotropy in a subsurface formation, comprising the steps of: - providing electromagnetic field data from a multi-offset electromagnetic survey obtained by using an electromagnetic source and a plurality of electromagnetic receivers (5, 6, 7, 8) at varying offset distances from the source, the electromagnetic source and plurality of electromagnetic receivers being located above the subsurface formation, the electromagnetic field data comprising a first set of multi-offset response signals received at each receiver with the electromagnetic source emitting at a first frequency, and at least one additional set of multi-offset response signals received at each receiver with the electromagnetic source emitting at a different frequency; the method is characterized in further comprising the following steps of: - comparing the first set and the at least one additional set of multi-offset response signals; and - determining the presence of electrical anisotropy in the subsurface formation from the comparison of the first and at least one additional sets of multi-offset response signals. - providing electromagnetic field data from a multi-offset electromagnetic survey obtained by using an electromagnetic source and a plurality of electromagnetic receivers (5, 6, 7, 8) at varying offset distances from the source, the electromagnetic source and plurality of electromagnetic receivers being located above the subsurface formation, the electromagnetic field data comprising a first set of multi-offset response signals received at each receiver with the electromagnetic source emitting at a first frequency, and at least one additional set of multi-offset response signals received at each receiver with the electromagnetic source emitting at a different frequency; - comparing the first set and the at least one additional set of multi-offset response signals; and - determining the presence of electrical anisotropy in the subsurface formation from the comparison of the first and at least one additional sets of multi-offset response signals.
An Escherichia coli producing 2-deoxy- scyllo -inosose, which, from a sucrose non-PTS gene group, consisting of a repressor protein (CscR)-encoding gene, a sucrose hydrolase (CscA)-encoding gene, a fructokinase (CscK)-encoding gene, and a sucrose permease (CscB)-encoding gene has only the sucrose hydrolase (CscA)-encoding gene and which has a DOI production system provided by introducing a DOI synthase (BtrC)-encoding gene thereinto or has an enhanced DOI production system, wherein said enhanced DOI production system is provided by enhancement of promoter activity of an enzyme-encoding gene present in the genome of a host bacterium or by strong expression of an enzyme-encoding gene by replacement with another promoter.
A power converter comprising: a power semiconductor module (300a-300c) having a power semiconductor element (328, 330, 156, 166) configured to convert a DC current to an AC current; a passage forming body configured to form a passage space in which a coolant flows; a driver circuit substrate configured to drive the power semiconductor element (328, 330, 156, 166); and a control circuit substrate configured to control the driver circuit substrate, wherein the passage forming body has a first surface and a side surface part formed in parallel to a direction perpendicular to the first surface, the driver circuit substrate is disposed at a position opposite to the first surface, the control circuit substrate is disposed on the side surface part such that a projection of the control circuit substrate when a projection of the control circuit substrate is made from a direction perpendicular to the side surface part overlaps a projection of the passage space when a projection of the passage space is made from the direction perpendicular to the side surface part, and the control circuit substrate thermally contacts a protruding portion (485A, 485B) formed on the side surface part of the passage forming body. a power semiconductor module (300a-300c) having a power semiconductor element (328, 330, 156, 166) configured to convert a DC current to an AC current; a passage forming body configured to form a passage space in which a coolant flows; a driver circuit substrate configured to drive the power semiconductor element (328, 330, 156, 166); and a control circuit substrate configured to control the driver circuit substrate, wherein the passage forming body has a first surface and a side surface part formed in parallel to a direction perpendicular to the first surface, the driver circuit substrate is disposed at a position opposite to the first surface, the control circuit substrate is disposed on the side surface part such that a projection of the control circuit substrate when a projection of the control circuit substrate is made from a direction perpendicular to the side surface part overlaps a projection of the passage space when a projection of the passage space is made from the direction perpendicular to the side surface part, and the control circuit substrate thermally contacts a protruding portion (485A, 485B) formed on the side surface part of the passage forming body.
A method of processing a visual image, for identifying areas of visual attention, comprising the steps of: storing an image as an array of pixels, each pixel having a value; selecting test pixels from the array, for each test pixel, selecting one or more neighbour sequences of pixels neighbouring the test pixel; selecting comparison pixels from the array; identifying a sequence of pixels neighbouring a selected comparison pixel having the same respective positional relationships to the comparison pixel as a selected neighbour sequence of pixels has to the test pixel; comparing the values of the selected neighbour sequence with the values of the identified sequence in accordance with a predetermined match criterion, generating a measure of visual attention for each test pixel, in dependence upon the number of comparisons made for that test pixel for which the comparison results in a mismatch. storing an image as an array of pixels, each pixel having a value; selecting test pixels from the array, for each test pixel, selecting one or more neighbour sequences of pixels neighbouring the test pixel; selecting comparison pixels from the array; identifying a sequence of pixels neighbouring a selected comparison pixel having the same respective positional relationships to the comparison pixel as a selected neighbour sequence of pixels has to the test pixel; comparing the values of the selected neighbour sequence with the values of the identified sequence in accordance with a predetermined match criterion, generating a measure of visual attention for each test pixel, in dependence upon the number of comparisons made for that test pixel for which the comparison results in a mismatch.
A method for manufacturing a boron-containing aluminum plate material, the method being characterized by comprising: a spreading step of spreading boron-containing alloy particles containing boride particles having a boron content of 5 mass% or more in a layer shape over a bottom plate of aluminum or aluminum alloy placed in a container, the boride particles include first boride particles having a boron content of 60 mass% or more and second boride particles having a boron content of 5 mass% to less than 60 mass%, said first boride particles including at least one selected from the group consisting of AlB 12, CaB 6, and SiB 6, said second boride particles including at least one selected from the group consisting of FeB, MnB 2, Fe 2 B, and AlB 2, wherein the proportion of the first boride particles in the boride particles is 50 mass% or more; a preheating step of mounting a tundish for control of pouring amount on a top of the container after the spreading step, and preheating the container and the tundish together at 300°C to 500°C; a casting step of enveloped-casting the layer of the boron-containing alloy particles in the container preheated in the preheating step with molten aluminum or molten aluminum alloy (hereinafter, referred to as "molten Al") by pouring the molten Al at 580°C to 900°C into the tundish preheated in the preheating step to fabricate an enveloped-cast plate with a predetermined thickness; and a cutting step of cutting off shrinkage cavities formed in a feeder section in an upper part of the enveloped-cast plate fabricated in the casting step. a spreading step of spreading boron-containing alloy particles containing boride particles having a boron content of 5 mass% or more in a layer shape over a bottom plate of aluminum or aluminum alloy placed in a container, the boride particles include first boride particles having a boron content of 60 mass% or more and second boride particles having a boron content of 5 mass% to less than 60 mass%, said first boride particles including at least one selected from the group consisting of AlB 12, CaB 6, and SiB 6, said second boride particles including at least one selected from the group consisting of FeB, MnB 2, Fe 2 B, and AlB 2, wherein the proportion of the first boride particles in the boride particles is 50 mass% or more; a preheating step of mounting a tundish for control of pouring amount on a top of the container after the spreading step, and preheating the container and the tundish together at 300°C to 500°C; a casting step of enveloped-casting the layer of the boron-containing alloy particles in the container preheated in the preheating step with molten aluminum or molten aluminum alloy (hereinafter, referred to as "molten Al") by pouring the molten Al at 580°C to 900°C into the tundish preheated in the preheating step to fabricate an enveloped-cast plate with a predetermined thickness; and a cutting step of cutting off shrinkage cavities formed in a feeder section in an upper part of the enveloped-cast plate fabricated in the casting step.
A photo-sensitive device comprising a layer structure, said photo-sensitive device comprising: an active layer being arranged in a first plane, wherein the active layer is configured to generate charges in response to incident light on the active layer; a charge transport layer being arranged in a second plane that is separate and parallel to the first plane, wherein the charge transport layer is formed of a semiconductor and comprises a first portion and a second portion, the second portion being laterally displaced in a plane of the charge transport layer in relation to the first portion; a gate separated by a dielectric material from the charge transport layer, wherein said gate and said charge transport layer are arranged such that the first portion of the charge transport layer is between the gate and the active layer and wherein the gate is configured to control a potential of the first portion of the charge transport layer; and a transfer gate, which is arranged to be separated by a dielectric material (112; 124) from a transfer portion of the charge transport layer between the first portion and the second portion, wherein the transfer gate is configured to control transfer of accumulated charges in the first portion to the second portion for read-out of detected light by the photo-sensitive device. an active layer being arranged in a first plane, wherein the active layer is configured to generate charges in response to incident light on the active layer; a charge transport layer being arranged in a second plane that is separate and parallel to the first plane, wherein the charge transport layer is formed of a semiconductor and comprises a first portion and a second portion, the second portion being laterally displaced in a plane of the charge transport layer in relation to the first portion; a gate separated by a dielectric material from the charge transport layer, wherein said gate and said charge transport layer are arranged such that the first portion of the charge transport layer is between the gate and the active layer and wherein the gate is configured to control a potential of the first portion of the charge transport layer; and a transfer gate, which is arranged to be separated by a dielectric material (112; 124) from a transfer portion of the charge transport layer between the first portion and the second portion, wherein the transfer gate is configured to control transfer of accumulated charges in the first portion to the second portion for read-out of detected light by the photo-sensitive device.
A method for producing active esterified polysaccharides comprising subjecting a carboxy group of an acid type polysaccharide and an agent for introducing an electrophilic group to an esterification reaction, bringing the generated active esterified polysaccharides into contact with a polyvalent carboxylic acid, and then precipitating and collecting the resulting active esterified polysaccharides.
A crystalline form A of the hydrochloride salt of 4-methyl-N-[3-(4-methyl-imidazol-1-yl)-5-trifluoromethyl-phenyl]-3-(4-pyridin-3-yl-pyrimidin-2-ylamino)-benzamide, wherein form A is a dihydrate and wherein said crystalline form is characterized by an x-ray powder diffraction pattern having all maxima selected from 8.5° 11.0°, 11.5°, 17.2°, 18.8°, 19.2°, 20.8°, 22.1°, and 26.0° (2θ degrees).
A method for an offshore hydraulic fracturing operation, gravel packing operation, or both comprising: preheating a viscoelastic surfactant gelled treating fluid to a temperature that is at least 60% of its peak viscosity temperature in degrees Fahrenheit to increase the viscosity of the viscoelastic surfactant gelled treating fluid, the composition of the viscoelastic surfactant gelled treating fluid comprising: an aqueous brine; and at least one viscoelastic surfactant added to the aqueous brine by a volume between 0.5% to 25% of the aqueous brine to increase the viscosity of the brine; and allowing the preheated, gelled treating fluid to cool during at least a portion of its delivery from the sea surface to a subterranean formation; and introducing the cooled, gelled treating fluid into the subterranean formation, the viscosity of the cooled, gelled treating fluid greater than its viscosity before being preheated and less than its viscosity at its peak viscosity temperature, where the cooled temperature condition is selected from the group consisting of an offshore operation where the temperature of the water is 150 °F (66 °C) or less; and when said method is a gravel packing operation, or both a hydrocarbon land-based operation where the temperature of the rock formation is 120 °F (49 °C) or less, where the peak viscosity temperature of the treating fluid is from 160 °F to 220 °F (71 °C to 104 °C). preheating a viscoelastic surfactant gelled treating fluid to a temperature that is at least 60% of its peak viscosity temperature in degrees Fahrenheit to increase the viscosity of the viscoelastic surfactant gelled treating fluid, the composition of the viscoelastic surfactant gelled treating fluid comprising: an aqueous brine; and at least one viscoelastic surfactant added to the aqueous brine by a volume between 0.5% to 25% of the aqueous brine to increase the viscosity of the brine; and an aqueous brine; and at least one viscoelastic surfactant added to the aqueous brine by a volume between 0.5% to 25% of the aqueous brine to increase the viscosity of the brine; and allowing the preheated, gelled treating fluid to cool during at least a portion of its delivery from the sea surface to a subterranean formation; and introducing the cooled, gelled treating fluid into the subterranean formation, the viscosity of the cooled, gelled treating fluid greater than its viscosity before being preheated and less than its viscosity at its peak viscosity temperature, where the cooled temperature condition is selected from the group consisting of an offshore operation where the temperature of the water is 150 °F (66 °C) or less; and when said method is a gravel packing operation, or both a hydrocarbon land-based operation where the temperature of the rock formation is 120 °F (49 °C) or less, where the peak viscosity temperature of the treating fluid is from 160 °F to 220 °F (71 °C to 104 °C).
A multiway switch, applicable to a wireless communication device being operable in a single-frequency single-transmit mode; the multiway switch comprising five T ports and 2 n P ports, the five T ports being configured to be coupled with a radio frequency circuit, the 2 n P ports being configured to be coupled with an antenna system comprising 2 n antennas, and the five T ports comprising one first T port coupled with all of the 2 n P ports; n being an integer and n ≥2; and the multiway switch being configured to be coupled through said T ports, with the radio frequency circuit and through said P ports, with the antenna system to implement a preset function of the wireless communication device; characterized in that the five T ports further comprise four second T ports; each of the four second T ports is coupled with only one corresponding P port of the 2 n P ports; the first T port supports at least a transmission function; the preset function is a function of transmitting a sounding reference signal, SRS, through the 2 n antennas corresponding to the 2 n P ports in turn; and the four second T ports support only a reception function.
A computer-implemented method comprising: detecting a version update of an object that includes a hash chain that stores a plurality of fields of the object; identifying a plurality of sub chains from the hash chain; generating a plurality of migration sub chains from the plurality of sub chains using a plurality of processes, wherein the plurality of sub chains are sent to separate processes of the plurality of processes and wherein the plurality of sub chains are processed individually; generating a plurality of container blocks from the plurality of migration sub chains; generating a migration chain from the plurality of container blocks; and accessing the object using the migration chain. detecting a version update of an object that includes a hash chain that stores a plurality of fields of the object; identifying a plurality of sub chains from the hash chain; generating a plurality of migration sub chains from the plurality of sub chains using a plurality of processes, wherein the plurality of sub chains are sent to separate processes of the plurality of processes and wherein the plurality of sub chains are processed individually; generating a plurality of container blocks from the plurality of migration sub chains; generating a migration chain from the plurality of container blocks; and accessing the object using the migration chain.