mhurhangee/patent-ind-claim-en huggingface dataset:
A method of labelling a plurality of molecular targets from a plurality of entities while preserving the integrity of the single-entity information, said method comprising providing a first set of emulsion droplets comprising droplets containing labelled molecular targets, wherein each of these droplets contains a plurality of molecular targets originating from no more than one entity and wherein, in each of these droplets, each molecular target is labelled with a molecular identification DNA sequence comprising (i) a unique molecular identification (UMI) barcode which is different for each molecular target and (ii) an overhang or an overhang producing restriction site,; providing a second set of emulsion droplets comprising droplets containing entity identification sequences, wherein each of these droplets contains at least one entity identification sequence which is a DNA sequence comprising a unique entity identification (UEI) barcode which is different for each droplet of the second set, and an overhang producing restriction site; fusing droplets of the first set with droplets of the second set wherein a droplet of the first set is fused with no more than one droplet of the second set; and ligating UEI barcodes to labelled molecular targets after restriction enzyme digestion, and optionally breaking the emulsion, wherein the entity is a cell, a particle or an emulsion droplet.
Method for collecting information relating to a flow routed in a communication network, said network comprising, in a data plane, packet-processing devices (10-14) that are configured so as to process packets on the basis of flow-processing rules and, in a control plane, at least one control device that is configured so as to control packet-processing devices and to manage said flow-processing rules, said method comprising, for an analysis device : - identifying (E2) at least one flow-processing rule configured so as to process a flow comprising a first characteristic associated with a first endpoint device of a flow to be sought in the communication network and applied by a processing device; - determining (E3) a second characteristic, associated with a second endpoint device, based on the identified processing rule. - identifying (E2) at least one flow-processing rule configured so as to process a flow comprising a first characteristic associated with a first endpoint device of a flow to be sought in the communication network and applied by a processing device; - determining (E3) a second characteristic, associated with a second endpoint device, based on the identified processing rule.
Coating system for applying multilayered coatings to a substrate by means of cathode sputtering, comprising the following features: a) a cathode pair (16, 18; 26) arranged in a common processing chamber, consisting of a first cathode body and a second cathode body (18; 26), is supplied with direct current by means of a common power supply , wherein the direct current is converted before the entry into the processing chamber into a pulse sequence having alternating positive and negative pulses with interposed pulse pauses, b) an arrangement for controlling the duration (T A , T B ) of the individual pulses and the duration of the respective pulse pauses, c) an arrangement for adjusting the two cathodes (16, 18; 26) in such a manner that a common deposition region results on the substrate (6; 12) to be coated, d) a common process gas system, which supplies the basic supply of the process gas, wherein a separate symmetrically arranged segmented process gas system is associated with each cathode body, wherein the cathode pair consists of planar cathodes and/or tubular cathodes . a) a cathode pair (16, 18; 26) arranged in a common processing chamber, consisting of a first cathode body and a second cathode body (18; 26), is supplied with direct current by means of a common power supply , wherein the direct current is converted before the entry into the processing chamber into a pulse sequence having alternating positive and negative pulses with interposed pulse pauses, b) an arrangement for controlling the duration (T A , T B ) of the individual pulses and the duration of the respective pulse pauses, c) an arrangement for adjusting the two cathodes (16, 18; 26) in such a manner that a common deposition region results on the substrate (6; 12) to be coated, d) a common process gas system, which supplies the basic supply of the process gas, wherein a separate symmetrically arranged segmented process gas system is associated with each cathode body, wherein the cathode pair consists of planar cathodes and/or tubular cathodes .
A dynamic scheduling method performed by at least one processor of a computer system for implementing one or more virtual GPUs, comprising: determining whether a physical GPU has resources for creating a virtual GPU of the virtual GPUs; in response to the physical GPU having resources for creating the virtual GPU, obtaining a frame buffer space for creating the virtual GPU by dividing an unused frame buffer space; allocating each of the one or more virtual GPUs a running time slice corresponding to a resource requirement of the virtual GPU according to resource requirements of the one or more virtual GPUs running on a physical GPU, wherein a sum of running time slices of the one or more virtual GPUs configured on the physical GPU is less than or equal to a maximum scheduling period for running virtual GPUs on the physical GPU; adjusting a scheduling period for running virtual GPUs on the physical GPU to the sum of the running time slices of the one or more virtual GPUs; creating the virtual GPU based on the obtained frame buffer space; and adding the created virtual GPU to a scheduling queue; allocating resources of the physical GPU to the one or more virtual GPUs according to the running time slices allocated to the one or more virtual GPUs. determining whether a physical GPU has resources for creating a virtual GPU of the virtual GPUs; in response to the physical GPU having resources for creating the virtual GPU, obtaining a frame buffer space for creating the virtual GPU by dividing an unused frame buffer space; allocating each of the one or more virtual GPUs a running time slice corresponding to a resource requirement of the virtual GPU according to resource requirements of the one or more virtual GPUs running on a physical GPU, wherein a sum of running time slices of the one or more virtual GPUs configured on the physical GPU is less than or equal to a maximum scheduling period for running virtual GPUs on the physical GPU; adjusting a scheduling period for running virtual GPUs on the physical GPU to the sum of the running time slices of the one or more virtual GPUs; creating the virtual GPU based on the obtained frame buffer space; and adding the created virtual GPU to a scheduling queue; allocating resources of the physical GPU to the one or more virtual GPUs according to the running time slices allocated to the one or more virtual GPUs.
A method for determining a recommended maximum load for a vehicle to be operated along a predefined route, comprising: - acquiring (S1) road topography data for said predefined route, the road topography data containing information about the topography of the road along said predefined route, - determining (S2), based on the acquired road topography data, a respective maximum allowable tire load for each individual tire of the vehicle for said predefined route, and - determining (S3), based on the determined maximum allowable tire loads, a recommended maximum load for the vehicle for said predefined route. - acquiring (S1) road topography data for said predefined route, the road topography data containing information about the topography of the road along said predefined route, - determining (S2), based on the acquired road topography data, a respective maximum allowable tire load for each individual tire of the vehicle for said predefined route, and - determining (S3), based on the determined maximum allowable tire loads, a recommended maximum load for the vehicle for said predefined route.
A dental imaging system for imaging a dental arrangement including an upper teeth arch and a lower teeth arch in an oral cavity of a patient, the dental imaging system including an outer arch-shaped structure and an inner centralizer structure coupled to each other, and being installable inside the oral cavity in a predefined position with the upper and lower teeth between the outer arch-shaped structure and a camera hub of the inner centralizer structure , and wherein the outer arch-shaped structure has a plurality of outer cameras arranged on a side of the outer arch-shaped structure in such a way that, when the dental imaging system is installed in the predefined position, the outer cameras focus on a front side of both the upper and lower teeth arches; and the inner centralizer structure includes the camera hub and a support structure holding the camera hub , and the camera hub including a plurality of inner cameras arranged in such a way that, when the dental imaging system is installed in the predefined position, the inner cameras focus on a back side of both the upper and lower teeth arches. the outer arch-shaped structure has a plurality of outer cameras arranged on a side of the outer arch-shaped structure in such a way that, when the dental imaging system is installed in the predefined position, the outer cameras focus on a front side of both the upper and lower teeth arches; and the inner centralizer structure includes the camera hub and a support structure holding the camera hub , and the camera hub including a plurality of inner cameras arranged in such a way that, when the dental imaging system is installed in the predefined position, the inner cameras focus on a back side of both the upper and lower teeth arches.
A hydraulic hammer comprising a housing with a pressure hole and a drain hole , a sleeve located in the housing , wherein said sleeve comprises a pressure cut and a pressure hole , a head located in the sleeve and configured to reciprocate and interact with an working piece , a pressure line and a drain line , wherein the outer surface of the sleeve has two diametrically opposite longitudinal channels , wherein one of the longitudinal channels is connected to the pressure hole of the sleeve , characterised in that the outer surface of the sleeve has circular cuts , and the other longitudinal channel is connected to the pressure line through the pressure cut of the sleeve and the pressure hole of the housing , wherein both longitudinal channels are configured to intersect with at least one circular cut of the sleeve .
A method of making a diesel fuel blend having enhanced cold properties comprising: (a) selecting a hydrotreated renewable middle distillate component, which is a mixture of paraffinic hydrocarbons having very low quantities of sulfur and aromatics, and a mineral middle distillate fuel component having cloud points that differ by no more than 17 °C, preferably by no more than 13 °C; and (b) blending the hydrotreated renewable middle distillate component and mineral middle distillate fuel component in a ratio of amounts by volume of from 10:90 to 90:10 to form a diesel fuel blend, wherein the diesel fuel blend contains 10-25 wt% n-paraffins in the C14-C20 range and an amount of isoparaffins in the C14-C20 range such that the ratio of the sum of wt% amounts of isoparaffins in the C14-C20 range to the sum of wt% amounts of n-paraffins in the C14-C20 range is less than 2.2; and the diesel fuel blend has a cloud point that is lower than the weighted mean of the cloud points of the mineral middle distillate component and the hydrotreated renewable middle distillate component. (a) selecting a hydrotreated renewable middle distillate component, which is a mixture of paraffinic hydrocarbons having very low quantities of sulfur and aromatics, and a mineral middle distillate fuel component having cloud points that differ by no more than 17 °C, preferably by no more than 13 °C; and (b) blending the hydrotreated renewable middle distillate component and mineral middle distillate fuel component in a ratio of amounts by volume of from 10:90 to 90:10 to form a diesel fuel blend,
An expandable intragastric device , configured for being positioned into the stomach by an endoscopic procedure, which device comprises: - a supporting tubular body having an oblong shape along a longitudinal extension (L), said supporting tubular body comprising a sidewall skirt defining an inner through lumen , wherein said supporting tubular body is expandable along said longitudinal extension (L) so as to be capable of assuming a minimum-encumbrance configuration for delivery into the stomach and an expanded configuration for use in situ , characterized in that said device also comprises: - a balloon structure , connected to said sidewall skirt of said supporting tubular body , which balloon structure is capable of assuming a deflated configuration for delivery into the stomach and an inflated configuration for occupying a part of the stomach inner space, the overall configuration of the device being such that, once the device is delivered in the stomach, food passes into said inner lumen of supporting tubular body and into the intestine. - a supporting tubular body having an oblong shape along a longitudinal extension (L), said supporting tubular body comprising a sidewall skirt defining an inner through lumen , wherein said supporting tubular body is expandable along said longitudinal extension (L) so as to be capable of assuming a minimum-encumbrance configuration for delivery into the stomach and an expanded configuration for use in situ , - a balloon structure , connected to said sidewall skirt of said supporting tubular body , which balloon structure is capable of assuming a deflated configuration for delivery into the stomach and an inflated configuration for occupying a part of the stomach inner space, the overall configuration of the device being such that, once the device is delivered in the stomach, food passes into said inner lumen of supporting tubular body and into the intestine.
A sensor , comprising: - a housing ; - a lead frame comprising at least three elongated leads having an exterior portion extending from the housing ; - a magnetic sensor circuit disposed in the housing, and connected to the lead frame; - the housing comprising two recesses arranged on two opposite sides of the housing for allowing the sensor to be mounted by heat-stacking; characterized in that the exterior portion of the elongated leads comprises a proximal portion having a first width , and a distal portion having a second width , the first width being smaller than the second width ; the lead frame further comprises a plurality of tabs or pins extending from the housing , each tab or pin being located substantially halfway between pairs of adjacent elongated leads , wherein each tab or pin has an exterior length smaller than an exterior length of the proximal portions of the elongated leads , and wherein each tab or pin has an exterior width smaller than the first width of the proximal portions of the elongated leads. - a housing ; - a lead frame comprising at least three elongated leads having an exterior portion extending from the housing ; - a magnetic sensor circuit disposed in the housing, and connected to the lead frame; - the housing comprising two recesses arranged on two opposite sides of the housing for allowing the sensor to be mounted by heat-stacking; the exterior portion of the elongated leads comprises a proximal portion having a first width , and a distal portion having a second width , the first width being smaller than the second width ; the lead frame further comprises a plurality of tabs or pins extending from the housing , each tab or pin being located substantially halfway between pairs of adjacent elongated leads , wherein each tab or pin has an exterior length smaller than an exterior length of the proximal portions of the elongated leads , and wherein each tab or pin has an exterior width smaller than the first width of the proximal portions of the elongated leads.
Method for extracting various unwanted compounds from cork; and especially compounds responsible for unwanted tastes and/or odours, such as phenolic compounds or anisole derivatives; comprising the step of: maintaining the cork to be treated at a pressure ranging from 64 to 450 bar, a temperature between 27 °C and 90 °C and for a time of less than 60 minutes, in contact only with a dense gas, without co-solvents or additional co-additive substances which are different from the dense gas; characterized by further comprising the purification of the dense gas used for extracting the unwanted compounds from cork and the subsequent reuse of said purified dense gas in the method, wherein the purification comprises: a step of washing with a solvent selected from: alcohols, ketones, ethers, esters or mixtures thereof; a step of coarse filtering with a filter of a woven or non-woven material; a step of fine filtering with a filter of sintered material; and a step of an adsorption process with filters of: activated carbon, zeolites, silica gel, diatomaceous earth, mixtures of some or all of them. maintaining the cork to be treated at a pressure ranging from 64 to 450 bar, a temperature between 27 °C and 90 °C and for a time of less than 60 minutes, in contact only with a dense gas, without co-solvents or additional co-additive substances which are different from the dense gas; characterized by further comprising the purification of the dense gas used for extracting the unwanted compounds from cork and the subsequent reuse of said purified dense gas in the method, wherein the purification comprises: a step of washing with a solvent selected from: alcohols, ketones, ethers, esters or mixtures thereof; a step of coarse filtering with a filter of a woven or non-woven material; a step of fine filtering with a filter of sintered material; and a step of an adsorption process with filters of: activated carbon, zeolites, silica gel, diatomaceous earth, mixtures of some or all of them.
A method for carrying out an installation operation in an elevator shaft of an elevator system using a mounting device which has a carrier component and a mechatronic installation component held on the carrier component , comprising the following steps: - in a displacement phase, displacing the carrier component relative to the elevator shaft and positioning the carrier component at different heights within the elevator shaft , - in a mounting phase, carrying out at least partially automatically a mounting step, wherein a mounting means is removed from a magazine component disposed on the carrier component and installed on a shaft wall of the elevator shaft , characterized by the steps: - in a stocking phase, stocking a magazine component with mounting means outside the elevator shaft and - in a loading phase, disposing the stocked magazine component on the carrier component . - in a displacement phase, displacing the carrier component relative to the elevator shaft and positioning the carrier component at different heights within the elevator shaft , - in a mounting phase, carrying out at least partially automatically a mounting step, wherein a mounting means is removed from a magazine component disposed on the carrier component and installed on a shaft wall of the elevator shaft , - in a stocking phase, stocking a magazine component with mounting means outside the elevator shaft and - in a loading phase, disposing the stocked magazine component on the carrier component .
Macitentan, or a pharmaceutically acceptable salt thereof, for use in the treatment of pulmonary hypertension, wherein macitentan is to be administered in combination with a compound having prostacyclin receptor (IP) agonist properties which is 2-{4-[(5,6-diphenylpyrazin-2-yl)(isopropyl)amino]butoxy}- N -(methylsulfonyl) acetamide, or a pharmaceutically acceptable salt thereof.
Compressor system for a utility vehicle, comprising at least one compressor , at least one electric motor that drives the compressor , at least one electric motor control unit and at least one air processing device , characterised in that the electric motor control unit is configured and designed such that it controls the electric motor and at least in part the air processing device .
An interposer, comprising: a plurality of multilayer thin film capacitors formed by a plurality of power and ground terminals disposed in a staggered pattern of rows and columns, wherein columns having power terminals alternate with columns having ground terminals and rows having power terminals alternate with rows having ground terminals, thereby forming an interposer having a column-by-column and row-by-row staggered power and ground terminal pattern rather than a checkerboard power and ground terminal pattern; and a plurality of conductive vias configured to couple the plurality of power and ground terminals between a first set of contacts and a second set of contacts, wherein the plurality of multilayer thin film capacitors are disposed between the first set of contacts and the plurality of conductive vias, and wherein a second plurality of multilayer thin film capacitors are formed between the plurality of conductive vias and the second set of contacts. a plurality of multilayer thin film capacitors formed by a plurality of power and ground terminals disposed in a staggered pattern of rows and columns, wherein columns having power terminals alternate with columns having ground terminals and rows having power terminals alternate with rows having ground terminals, thereby forming an interposer having a column-by-column and row-by-row staggered power and ground terminal pattern rather than a checkerboard power and ground terminal pattern; and a plurality of conductive vias configured to couple the plurality of power and ground terminals between a first set of contacts and a second set of contacts, wherein the plurality of multilayer thin film capacitors are disposed between the first set of contacts and the plurality of conductive vias, and wherein a second plurality of multilayer thin film capacitors are formed between the plurality of conductive vias and the second set of contacts.
A method for producing a polythiol compound, the method comprising: reacting a halide represented by the following Formula with an alkali metal compound selected from the group consisting of an alkali metal sulfide and an alkali metal hydroxide to obtain a polyol compound selected from the group consisting of a polyol compound represented by Formula and a polyol compound represented by Formula , in Formula , X represents a halogen atom, reacting the polyol compound with thiourea to obtain an isothiuronium salt; hydrolyzing the isothiuronium salt to obtain a polythiol salt; and converting the polythiol salt into a polythiol to obtain one or more polythiol compounds selected from the group consisting of a polythiol compound represented by Formula , a polythiol compound represented by Formula , a polythiol compound represented by Formula , and a polythiol compound represented by Formula , wherein a content of iron in the alkali metal compound is 100 ppm or less on a mass basis. reacting a halide represented by the following Formula with an alkali metal compound selected from the group consisting of an alkali metal sulfide and an alkali metal hydroxide to obtain a polyol compound selected from the group consisting of a polyol compound represented by Formula and a polyol compound represented by Formula , in Formula , X represents a halogen atom, reacting the polyol compound with thiourea to obtain an isothiuronium salt; hydrolyzing the isothiuronium salt to obtain a polythiol salt; and converting the polythiol salt into a polythiol to obtain one or more polythiol compounds selected from the group consisting of a polythiol compound represented by Formula , a polythiol compound represented by Formula , a polythiol compound represented by Formula , and a polythiol compound represented by Formula , wherein a content of iron in the alkali metal compound is 100 ppm or less on a mass basis.