mhurhangee/ep-ind-claims huggingface dataset:
A transportable device for the heating of foodstuffs, having: a container for the reception of the foodstuffs and a self-contained heating compartment adjoining the container, which is thermally coupled with the container via a common heat conducting wall, and at the same time is hermetically separated from the latter, wherein the heating compartment has a first chamber and a second chamber, which are separated by a wall permeable to water vapour, wherein a mixture of substances is located in the first chamber, which, with the supply of water, generates heat in an exothermic chemical reaction, wherein water vapour is formed, and wherein a zeolite is located in the second chamber, which can absorb the water entering from the first chamber via the wall permeable to water vapour with the generation of heat. a container for the reception of the foodstuffs and a self-contained heating compartment adjoining the container, which is thermally coupled with the container via a common heat conducting wall, and at the same time is hermetically separated from the latter, wherein the heating compartment has a first chamber and a second chamber, which are separated by a wall permeable to water vapour, wherein a mixture of substances is located in the first chamber, which, with the supply of water, generates heat in an exothermic chemical reaction, wherein water vapour is formed, and wherein a zeolite is located in the second chamber, which can absorb the water entering from the first chamber via the wall permeable to water vapour with the generation of heat.
A method specifically adapted for: receiving a configuration for a resource space comprising a plurality of time-frequency resources, wherein the resource space comprises a first portion for a first type of signaling and a second portion for a second type of signaling, the first type of signaling comprises at least one of persistent acknowledgement signaling and scheduling request signaling, the second type of signaling comprises dynamic acknowledgement signaling, and characterized by, the first type of signaling and the second type of signaling share a common channelization structure; receiving an allocation of resources of the first portion for the at least one of persistent acknowledgment signaling and scheduling request signaling, based on the configuration of the resource space; and determining an allocation of resources of the second portion based on the first portion. receiving a configuration for a resource space comprising a plurality of time-frequency resources, wherein the resource space comprises a first portion for a first type of signaling and a second portion for a second type of signaling, the first type of signaling comprises at least one of persistent acknowledgement signaling and scheduling request signaling, the second type of signaling comprises dynamic acknowledgement signaling, and characterized by, the first type of signaling and the second type of signaling share a common channelization structure; receiving an allocation of resources of the first portion for the at least one of persistent acknowledgment signaling and scheduling request signaling, based on the configuration of the resource space; and determining an allocation of resources of the second portion based on the first portion.
A method for detecting and discriminating elementary particles such as protons, ions, electrons, neutrons, photons or the like, for example, in a diamond detector (1, 21, 31), wherein an electric field is applied to the detector (1, 21, 31) and wherein a charge pulse is generated in the detector (1, 21, 31) when a particle passes through the detector (1, 21, 31) and each charge pulse is subsequently converted into an electrical signal, wherein the detector (1, 21, 31) is divided into at least two partial regions (D1, D1', D1", D2) which are separate from one another, to which an electric field is applied separately in each case, characterized in that a read-out of each charge pulse is performed by means of a common read-out electrode (4, 22, 33) of the detector (1, 21, 31) located between the partial regions (D1, D1', D1", D2) of the detector (1, 21, 31) and that an electric field of reverse polarity is applied to each of the partial regions (D1, D1', D1", D2) of the detector (1, 21, 31) separated from one another, wherein the read-out of the signals of the separate partial regions (D1, D1', D1", D2) of the detector (1, 21, 31) takes place by means of a common read-out line (23, 34).
A spinning apparatus for making polymeric nanofibers, comprising: (a) a high speed rotating member being a spinning disk or a spinning bowl, wherein the rotating member has an edge and, optionally, the rotating member can be heated by induction heating; (b) a protecting shield affixed to an edge of the rotating member to form enclosed serrations wherein the protecting shield is positioned on the top of the spinning disk or the bottom of the spinning bowl; and (c) a stationary shield on the bottom of the rotating member. (a) a high speed rotating member being a spinning disk or a spinning bowl, wherein the rotating member has an edge and, optionally, the rotating member can be heated by induction heating; (b) a protecting shield affixed to an edge of the rotating member to form enclosed serrations wherein the protecting shield is positioned on the top of the spinning disk or the bottom of the spinning bowl; and (c) a stationary shield on the bottom of the rotating member.
A rolling beam splitter optical switching mechanism for combination and selection of detector illumination comprising infrared and visible light, the switching mechanism comprising: a housing; an immersed cube beam splitter supported by the housing, the beam splitter being configured to direct electromagnetic radiation in a first direction which extends in a direction parallel to the axial direction about which the housing is rotated and a second direction which extends in a direction perpendicular to the first direction; and means for rotating the housing and the beam splitter to change a direction of electromagnetic radiation directed by the beam splitter in the second direction which includes a drive assembly comprising a drive gear secured to the housing and a driven gear, coupled to a motor, configured to drive the drive gear and at least one adjustable hard stop to limit the rotation of the housing. a housing; an immersed cube beam splitter supported by the housing, the beam splitter being configured to direct electromagnetic radiation in a first direction which extends in a direction parallel to the axial direction about which the housing is rotated and a second direction which extends in a direction perpendicular to the first direction; and means for rotating the housing and the beam splitter to change a direction of electromagnetic radiation directed by the beam splitter in the second direction which includes a drive assembly comprising a drive gear secured to the housing and a driven gear, coupled to a motor, configured to drive the drive gear and at least one adjustable hard stop to limit the rotation of the housing.
A method of detecting the pressure in a pneumatic tyre comprising the steps: a) causing air to flow on a line connecting the pneumatic tyre to a pressure reservoir, and b) measuring a tyre-side air pressure (p 16) at a tyre-side measurement point of the line, which is respectively separated from the reservoir and from the tyre by a flow resistance, characterised in that the further method step is included: c) estimating the tyre pressure (p rad) on the basis of a calibration function which has the tyre-side air pressure (p 16) and a reservoir-side air pressure (p 15) as variables. a) causing air to flow on a line connecting the pneumatic tyre to a pressure reservoir, and b) measuring a tyre-side air pressure (p 16) at a tyre-side measurement point of the line, which is respectively separated from the reservoir and from the tyre by a flow resistance, characterised in that the further method step is included: c) estimating the tyre pressure (p rad) on the basis of a calibration function which has the tyre-side air pressure (p 16) and a reservoir-side air pressure (p 15) as variables.
A method of locating the wall boundaries of test wells arranged on the surface of a microplate comprising: illuminating a microplate and capturing a digital image of said microplate; analyzing the digital image of the microplate utilizing, at least in part, pixel intensity information to detect features of the wall boundaries of the test wells; generating a candidate edge image of the microplate using the features of the wall boundaries wherein the candidate edge image represents locations of one or more segments of the wall boundaries; analyzing the candidate edge image using an algorithm to calculate the outer perimeter boundary of one or more test wells and to determine the spatial location of the outer perimeter boundary on the surface of the microplate; analyzing the outer perimeter boundary of the one or more test wells utilizing, at least in part, pixel intensity information to determine the spatial location of the inner perimeter boundary of one or more test wells; mapping the spatial domain image of the boundary on the microplate to identify test well regions on the surface of the microplate. illuminating a microplate and capturing a digital image of said microplate; analyzing the digital image of the microplate utilizing, at least in part, pixel intensity information to detect features of the wall boundaries of the test wells; generating a candidate edge image of the microplate using the features of the wall boundaries wherein the candidate edge image represents locations of one or more segments of the wall boundaries; analyzing the candidate edge image using an algorithm to calculate the outer perimeter boundary of one or more test wells and to determine the spatial location of the outer perimeter boundary on the surface of the microplate; analyzing the outer perimeter boundary of the one or more test wells utilizing, at least in part, pixel intensity information to determine the spatial location of the inner perimeter boundary of one or more test wells; mapping the spatial domain image of the boundary on the microplate to identify test well regions on the surface of the microplate.
A process for obtaining a biolubricant from vegetable oil, wherein said process comprises the following steps: (a) esterification reaction of a product of hydrolysis of the vegetable oil using a first branched aliphatic alcohol, wherein said vegetable oil is castor oil and the product of hydrolysis of said castor oil is ricinoleic fatty acid, said esterification reaction comprising a polystyrene-based ion exchange sulfonic resin as catalyst; (b) epoxidation reaction of the esters obtained in step (a) wherein said epoxidation reaction comprises formic acid and hydrogen peroxide, at a temperature range between 20 and 40°C, for a period of 8 to 24 hours, at a molar ratio of ester/formic acid/hydrogen peroxide of between 1:1:2 and 1:2:6); (c) nucleophilic substitution reaction of the epoxidated esters obtained in step (b) using a second branched aliphatic alcohol comprising p-Toluenesulfonic acid as catalyst; and (d) reaction of the product obtained in step (c) with acetic anhydride; wherein the first and the second branched aliphatic alcohols are independent from each other. (a) esterification reaction of a product of hydrolysis of the vegetable oil using a first branched aliphatic alcohol, wherein said vegetable oil is castor oil and the product of hydrolysis of said castor oil is ricinoleic fatty acid, said esterification reaction comprising a polystyrene-based ion exchange sulfonic resin as catalyst; (b) epoxidation reaction of the esters obtained in step (a) wherein said epoxidation reaction comprises formic acid and hydrogen peroxide, at a temperature range between 20 and 40°C, for a period of 8 to 24 hours, at a molar ratio of ester/formic acid/hydrogen peroxide of between 1:1:2 and 1:2:6); (c) nucleophilic substitution reaction of the epoxidated esters obtained in step (b) using a second branched aliphatic alcohol comprising p-Toluenesulfonic acid as catalyst; and (d) reaction of the product obtained in step (c) with acetic anhydride; wherein the first and the second branched aliphatic alcohols are independent from each other.
A process for reducing palladium content in fosaprepitant dimeglumine, which comprises: a. providing a solution of fosaprepitant dimeglumine in a solvent; b. adding SiliaBond Metal Scavenger to the solution obtained in step (a); c. maintaining the reaction mass obtained in step (b); d. adding a solvent to the reaction mass; e. isolating the wet solid; f. slurring the wet solid obtained in step (e) with an ester solvent; and g. isolating fosaprepitant dimeglumine. a. providing a solution of fosaprepitant dimeglumine in a solvent; b. adding SiliaBond Metal Scavenger to the solution obtained in step (a); c. maintaining the reaction mass obtained in step (b); d. adding a solvent to the reaction mass; e. isolating the wet solid; f. slurring the wet solid obtained in step (e) with an ester solvent; and g. isolating fosaprepitant dimeglumine.
An automated system for generating induced pluripotent stem cells (iPSCs), comprising: an automated cell plating unit for placing cells on a plate; an automated induction unit comprising controller software having functionality to control contacting the cells on the plating unit with reprogramming factors and producing iPSCs; an automated sorting unit for selectively sorting, isolating, and expanding the iPSCs produced by the automated induction unit by identifying iPSC specific markers, wherein the sorting unit comprises software capable of single colony confirmation, whereby said single colony is positive for said iPSC specific markers and is then selected for passaging, expansion and quality control; a cell banking unit for obtaining cells used by the plating unit; wherein the banking unit comprises a biopsy unit for placing biopsies on a plate; an outgrowth and passaging unit for growing cells; and a mycoplasma test unit comprising controller software to control testing for the presence of mycoplasma; a sorting unit for selectively sorting and isolating the differentiated adult cells produced by the induction unit by identifying markers specific to the differentiated adult cells; the automated system further comprising a controller having software for controlling integration of functionality of system components and automation of the system. an automated cell plating unit for placing cells on a plate; an automated induction unit comprising controller software having functionality to control contacting the cells on the plating unit with reprogramming factors and producing iPSCs; an automated sorting unit for selectively sorting, isolating, and expanding the iPSCs produced by the automated induction unit by identifying iPSC specific markers, wherein the sorting unit comprises software capable of single colony confirmation, whereby said single colony is positive for said iPSC specific markers and is then selected for passaging, expansion and quality control; a cell banking unit for obtaining cells used by the plating unit; a biopsy unit for placing biopsies on a plate; an outgrowth and passaging unit for growing cells; and a mycoplasma test unit comprising controller software to control testing for the presence of mycoplasma; a sorting unit for selectively sorting and isolating the differentiated adult cells produced by the induction unit by identifying markers specific to the differentiated adult cells; the automated system further comprising a controller having software for controlling integration of functionality of system components and automation of the system.
Device for controlling the braking of a trailer, comprising: - at least one control line connectable to a source of an operating fluid at a first pressure; - at least one additional line; - at least one braking line connectable to the braking system of the trailer; at least one accumulator which is connected in a fluid-operated manner to said additional line, valve means positioned between said accumulator and said braking line and movable between at least one supply position, wherein said accumulator is placed in communication with said braking line, and an isolation position, wherein said accumulator is isolated from said braking line; at least first piloting means of said valve means comprising at least a first piloting line which is connected in a fluid-operated manner to said control line and adapted to push said valve means towards said supply position, at least second piloting means operating on said valve means opposite said first piloting means, characterised in that the additional line is connectable to a source of an operating fluid at a second pressure. - at least one control line connectable to a source of an operating fluid at a first pressure; - at least one additional line; - at least one braking line connectable to the braking system of the trailer; at least one accumulator which is connected in a fluid-operated manner to said additional line, valve means positioned between said accumulator and said braking line and movable between at least one supply position, wherein said accumulator is placed in communication with said braking line, and an isolation position, wherein said accumulator is isolated from said braking line; at least first piloting means of said valve means comprising at least a first piloting line which is connected in a fluid-operated manner to said control line and adapted to push said valve means towards said supply position, at least second piloting means operating on said valve means opposite said first piloting means, characterised in that the additional line is connectable to a source of an operating fluid at a second pressure.
A transgenic corn seed comprising a seed oil having a stearidonic acid (18:4 n-3) content of from 20 % to 33 %, comprising gamma-linolenic acid in a content of less than 5 %, and comprising a polynucleotide sequence encoding a Neurospora crassa Δ15 desaturase mutagenized to increase expression in a monocot such as corn and a polynucleotide sequence encoding a Δ6 desaturase.
Closure cap for closing the pouring opening of a container comprising - a cylindrical threaded part with an open edge and an inner thread that can cooperate with an outer thread of a container neck of the container, - a guarantee strip that can be held with projections configured on its inner side on a retaining ring molded on the container neck and - a retaining device (19, 21) with a first and a second end (41, 43, 45, 47), wherein the first end (41, 43) is fixedly connected with the open edge of the threaded part and the second end (45, 47) is fixedly connected with the guarantee strip, wherein the retaining device comprises a first and a second retaining strap (19, 21) that are configured above the projections from the guarantee strip, and the first and the second retaining strap (19, 21) are extendable from a first position, in which first position they are arrange inside the guarantee strip, to a second position in which they are arranged outside the guarantee strip, characterized in that the guarantee strap comprises slits arranged distributed over the circumference with an upper edge and a lower edge, wherein the upper edge is formed by a portion of the guarantee strap extending in an arc shape and the lower edge is formed by a wall portion inclined inwards in the radial direction and the lower edge of each slit forms an engaging means in the form of the projection for a positive engagement into an abutment in the form of the retaining ring arranged in the area of the container neck. - a cylindrical threaded part with an open edge and an inner thread that can cooperate with an outer thread of a container neck of the container, - a guarantee strip that can be held with projections configured on its inner side on a retaining ring molded on the container neck and - a retaining device (19, 21) with a first and a second end (41, 43, 45, 47), wherein the first end (41, 43) is fixedly connected with the open edge of the threaded part and the second end (45, 47) is fixedly connected with the guarantee strip, wherein the retaining device comprises a first and a second retaining strap (19, 21) that are configured above the projections from the guarantee strip, and the first and the second retaining strap (19, 21) are extendable from a first position, in which first position they are arrange inside the guarantee strip, to a second position in which they are arranged outside the guarantee strip,
An apparatus, comprising: a lancet configured to form an incision in tissue, wherein the lancet comprises an integrated lancing test strip, further comprising means for holding the test strip stationary while the lancet forms the incision; a drive wheel (390, 640); and means for adjusting stroke length of the lancet imparted by the drive wheel (390, 640), wherein the means for adjusting stroke length includes a cam (380, 628) and includes means for adjusting eccentricity of the drive wheel. a lancet configured to form an incision in tissue, wherein the lancet comprises an integrated lancing test strip, further comprising means for holding the test strip stationary while the lancet forms the incision; a drive wheel (390, 640); and means for adjusting stroke length of the lancet imparted by the drive wheel (390, 640), wherein the means for adjusting stroke length includes a cam (380, 628) and includes means for adjusting eccentricity of the drive wheel.
A method of selecting a patient for treatment for disease-related reduced cognitive function caused by reduced neuronal metabolism associated with Alzheimer's disease, the method comprising: a. selecting a patient having disease-related reduced cognitive function caused by reduced neuronal metabolism associated with Alzheimer's disease; b. determining in the patient the presence of homozygosity for adenine of Insulin-like Growth Factor Receptor Precursor (IGF1 R) rs2229765 at relevant portion shown by SEQ ID NO:6; and c. selecting a patient having the specific genotype in (b) for treatment, wherein the treatment comprises administering to the patient at least one medium chain triglyceride in an amount effective for the treatment of or prevention of disease-related reduced cognitive function caused by reduced neuronal metabolism associated with Alzheimer's disease. a. selecting a patient having disease-related reduced cognitive function caused by reduced neuronal metabolism associated with Alzheimer's disease; b. determining in the patient the presence of homozygosity for adenine of Insulin-like Growth Factor Receptor Precursor (IGF1 R) rs2229765 at relevant portion shown by SEQ ID NO:6; and c. selecting a patient having the specific genotype in (b) for treatment, wherein the treatment comprises administering to the patient at least one medium chain triglyceride in an amount effective for the treatment of or prevention of disease-related reduced cognitive function caused by reduced neuronal metabolism associated with Alzheimer's disease.