mhurhangee/ep-ind-claims huggingface dataset:
A additive composition for lubricating oil comprising: - at least one dinuclear organomolybdenum compound, and - at least one 2,5-dimercapto-1,3,4-thiadiazole alkyl (poly)carboxylate compound selected from compounds of the following formula: wherein R' is a C 1 -C 34 alkyl moiety substituted with at least one C 1 -C 34 alkyl carboxylate moiety, the weight ratio between the organomolybdenum compound and the 2,5-dimercapto-1,3,4-thiadiazole alkyl (poly)carboxylate compound ranges from 1:10 to 10:1. - at least one dinuclear organomolybdenum compound, and - at least one 2,5-dimercapto-1,3,4-thiadiazole alkyl (poly)carboxylate compound selected from compounds of the following formula:
An electrolytic vessel for refining metals, the vessel comprising: a core shaped to hold an electrolytic liquid, the core comprising a rectangular core base and four walls extending upwardly from peripheral edges of the core base; a multiple-layer fiberglass-based envelope surrounding the core, the envelope comprising multiple layers of at least one of fiberglass mat, knitted fiberglass, stitched, stitched-mat, knitted-mat and fiberglass woven roving, thereby defining: an inner hull layering an inner surface of the core, and an outer hull layering an outer surface of the core; and at least two elongated rebars (10, 12, 16, 160) embedded within the core, within the multiple-layer fiberglass-based envelope or a combination thereof, the at least two elongated rebars being flat whereby their cross-section in a transverse direction is inferior to their cross-section in a longitudinal direction; wherein the outer hull is thinner in terms of chemical protection or structural protection than the inner hull which is in contact with acid. a core shaped to hold an electrolytic liquid, the core comprising a rectangular core base and four walls extending upwardly from peripheral edges of the core base; a multiple-layer fiberglass-based envelope surrounding the core, the envelope comprising multiple layers of at least one of fiberglass mat, knitted fiberglass, stitched, stitched-mat, knitted-mat and fiberglass woven roving, thereby defining: an inner hull layering an inner surface of the core, and an outer hull layering an outer surface of the core; and an inner hull layering an inner surface of the core, and an outer hull layering an outer surface of the core; and
A cold brew process involving brewing ground coffee beans at ambient or colder temperatures for preparing a liquid coffee beverage concentrate comprising the steps of: (i) subjecting a first vessel comprising at least one first filter bag of infusion material to a first steeping step conducted at ambient or colder temperatures ranging from 16°C (60°F) to 32°C (90°F) to form a first beverage extract, (ii) subjecting a second vessel comprising at least one second filter bag of infusion material to a first steeping step conducted at ambient or colder temperatures ranging from 16°C (60°F) to 32°C (90°F) to form a second beverage extract, (iii) combining the first beverage extract and the second beverage extract to form a combined extract, (iv) providing a third vessel containing at least one third filter bag of infusion material, (v) exposing the combined extract to the at least one third filter bag of infusion material in the third vessel containing the combined first and second extracts in a second steeping step conducted at ambient or colder temperatures ranging from 16°C (60°F) to 32°C (90°F) to form a liquid coffee beverage concentrate having a Brix level of 9 to 15. (i) subjecting a first vessel comprising at least one first filter bag of infusion material to a first steeping step conducted at ambient or colder temperatures ranging from 16°C (60°F) to 32°C (90°F) to form a first beverage extract, (ii) subjecting a second vessel comprising at least one second filter bag of infusion material to a first steeping step conducted at ambient or colder temperatures ranging from 16°C (60°F) to 32°C (90°F) to form a second beverage extract, (iii) combining the first beverage extract and the second beverage extract to form a combined extract, (iv) providing a third vessel containing at least one third filter bag of infusion material, (v) exposing the combined extract to the at least one third filter bag of infusion material in the third vessel containing the combined first and second extracts in a second steeping step conducted at ambient or colder temperatures ranging from 16°C (60°F) to 32°C (90°F) to form a liquid coffee beverage concentrate having a Brix level of 9 to 15.
A method for extracting and analyzing an analyte from a sample, the method comprising: introducing a solvent into a capillary; introducing a sample comprising an analyte into the capillary, wherein the solvent does not mix with the sample because the solvent is selected based on having a polarity that is different from the polarity of the sample and the solvent is compatible for both extraction and ionization of the analyte; moving the sample and the solvent within the capillary to induce circulation within the sample and the solvent, thereby causing the analyte to be extracted from the sample and into the solvent; and analyzing the extracted analyte, wherein analyzing comprises applying a voltage to the solvent comprising the extracted analyte in the capillary so that the analyte is expelled from the capillary, thereby generating ions of the analyte, and analyzing the ions in a mass spectrometer. introducing a solvent into a capillary; introducing a sample comprising an analyte into the capillary, wherein the solvent does not mix with the sample because the solvent is selected based on having a polarity that is different from the polarity of the sample and the solvent is compatible for both extraction and ionization of the analyte; moving the sample and the solvent within the capillary to induce circulation within the sample and the solvent, thereby causing the analyte to be extracted from the sample and into the solvent; and analyzing the extracted analyte, wherein analyzing comprises applying a voltage to the solvent comprising the extracted analyte in the capillary so that the analyte is expelled from the capillary, thereby generating ions of the analyte, and analyzing the ions in a mass spectrometer.
A laser marking additive comprising a bismuth compound and an alcohol, wherein Bi 2 O 3 is used as bismuth compound and wherein the alcohol has a melting temperature of at least 40 °C, preferably at least 80 °C.
A process for producing treated filler comprising: a. treating a slurry comprising untreated filler wherein said untreated filler has not been previously dried, with treating material chosen from cationic, anionic, nonionic and amphoteric surfactants and mixtures thereof, wherein the treating material is present in an amount of from greater than 1% to 25% by weight of untreated filler, to produce a treated filler slurry; and b. drying said treated filler slurry. a. treating a slurry comprising untreated filler wherein said untreated filler has not been previously dried, with treating material chosen from cationic, anionic, nonionic and amphoteric surfactants and mixtures thereof, wherein the treating material is present in an amount of from greater than 1% to 25% by weight of untreated filler, to produce a treated filler slurry; and b. drying said treated filler slurry.
An air-flow apparatus which is arranged for treating air and for drying an object, in particular a human hand, the air-flow apparatus comprising: - a housing having an interior space into which the object to be dried is insertable via an opening of a partially opened lid of the housing, and having a base opposite the lid; - a pump, in particular a suction pump, which is connected on an inlet side to the interior space in such a way that, by means of a pumping action of the pump, a negative pressure is generated in the interior space and a first air flow directed from the opening into the interior space, in particular exclusively into the interior space, is generated for drying the object, the pump being designed for discharging on an outlet side an outlet air flow passing through the pump; and - a flow arrangement which has a controllable overpressure generating device (27, 44), an inflow pipe and at least one nozzle, the overpressure generating device (27, 44) being connected on its outlet side via the inflow pipe and the at least one nozzle to the interior space and being adapted to form an overpressure in the inflow pipe and to generate via the at least one nozzle a second air flow directed into the interior space for drying the object. - a housing having an interior space into which the object to be dried is insertable via an opening of a partially opened lid of the housing, and having a base opposite the lid; - a pump, in particular a suction pump, which is connected on an inlet side to the interior space in such a way that, by means of a pumping action of the pump, a negative pressure is generated in the interior space and a first air flow directed from the opening into the interior space, in particular exclusively into the interior space, is generated for drying the object, the pump being designed for discharging on an outlet side an outlet air flow passing through the pump; and - a flow arrangement which has a controllable overpressure generating device (27, 44), an inflow pipe and at least one nozzle, the overpressure generating device (27, 44) being connected on its outlet side via the inflow pipe and the at least one nozzle to the interior space and being adapted to form an overpressure in the inflow pipe and to generate via the at least one nozzle a second air flow directed into the interior space for drying the object.
A method for performing a docking service using Wi-Fi, the method performed by a wireless dockee, WD, comprising: transmitting a probe request for discovering the docking service to a wireless docking center, WDC, wherein the probe request includes a docking information element, IE 1; receiving a probe response including a docking IE 2 from the wireless docking center, WDC; and performing a docking connection with the wireless docking center, WDC, based on the received probe response, wherein the probe request and probe response are according to WiFi wireless communication, and the docking IE 1 includes a device Identifier parameter for identifying a device and a docking information request parameter related to a docking service discovery, and wherein the docking IE 2 includes at least one of information related to the number of a wireless docking environment, WDN, that can be provided by the wireless docking center, WDC, or a WDN default parameter indicating information related to one or more peripherals within each WDN, wherein a WDN is the entirety or a partial aggregation of peripherals connected to the WDC. transmitting a probe request for discovering the docking service to a wireless docking center, WDC, wherein the probe request includes a docking information element, IE 1; receiving a probe response including a docking IE 2 from the wireless docking center, WDC; and performing a docking connection with the wireless docking center, WDC, based on the received probe response, wherein the probe request and probe response are according to WiFi wireless communication, and the docking IE 1 includes a device Identifier parameter for identifying a device and a docking information request parameter related to a docking service discovery, and wherein the docking IE 2 includes at least one of information related to the number of a wireless docking environment, WDN, that can be provided by the wireless docking center, WDC, or a WDN default parameter indicating information related to one or more peripherals within each WDN, wherein a WDN is the entirety or a partial aggregation of peripherals connected to the WDC.
A system comprising: a. a tubular, rectangular or conical vessel, the vessel being made of a thermally conductive material; and b. an internal packing, contained within the vessel, for enhancing heat transport into or out of the vessel, the internal packing comprising a microfibrous media, the microfibrous media being made of thermally conductive fibers, wherein the thermally conductive fibers are micron-sized and have an average diameter of 1-30 microns, wherein an orientation of the internal packing is configured for promoting heat transfer between a fluid and internal walls of the vessel using disks of microfibrous media stacked in an axial direction of the vessel, wherein the internal packing contacts the internal walls of the vessel, wherein a fluid flow direction is in the axial direction of the vessel and perpendicular or near-perpendicular to the disks of microfibrous media, wherein the microfibrous media contains a microfibrous immobilized process and chemical reaction facilitator, the microfibrous immobilized process and chemical reaction facilitator increasing heat transport and electrical conduction; and c. supporting structures to hold and compress the microfibrous immobilized process and chemical reaction facilitator, wherein the microfibrous media is between the supporting structures. a. a tubular, rectangular or conical vessel, the vessel being made of a thermally conductive material; and b. an internal packing, contained within the vessel, for enhancing heat transport into or out of the vessel, the internal packing comprising a microfibrous media, the microfibrous media being made of thermally conductive fibers, wherein the thermally conductive fibers are micron-sized and have an average diameter of 1-30 microns, wherein an orientation of the internal packing is configured for promoting heat transfer between a fluid and internal walls of the vessel using disks of microfibrous media stacked in an axial direction of the vessel, wherein the internal packing contacts the internal walls of the vessel, wherein a fluid flow direction is in the axial direction of the vessel and perpendicular or near-perpendicular to the disks of microfibrous media, wherein the microfibrous media contains a microfibrous immobilized process and chemical reaction facilitator, the microfibrous immobilized process and chemical reaction facilitator increasing heat transport and electrical conduction; and c. supporting structures to hold and compress the microfibrous immobilized process and chemical reaction facilitator, wherein the microfibrous media is between the supporting structures.
Mould element, in particular a sipe or rib, for forming a sipe or a groove in the tread strip of a pneumatic vehicle tyre during its vulcanization in a tyre vulcanization mould, with an anchoring portion for anchoring the mould element in a mould segment of the tyre vulcanization mould and with a forming portion which forms the sipe or the groove in the tread strip of the tyre which is inserted into the tyre vulcanization mould, the mould element being produced from a metal powder in accordance with an additive method, the forming portion having, on its end region which faces away from the anchoring portion, a row of elements, the greatest dimension of which transversely with respect to the forming portion is greater than the thickness of the forming portion, characterized in that the elements are ellipsoidal elements with two or three half-axes of different size or spherical elements, the elements being arranged so as to overlap mutually. the forming portion having, on its end region which faces away from the anchoring portion, a row of elements, the greatest dimension of which transversely with respect to the forming portion is greater than the thickness of the forming portion, characterized in that the elements are ellipsoidal elements with two or three half-axes of different size or spherical elements, the elements being arranged so as to overlap mutually.
A device comprising: a first chip (202, 302) comprising a superconducting qubit, the superconducting qubit comprising a superconducting quantum interference device (SQUID) region, a control region and a readout region; a second chip (204, 304) bonded to the first chip, the second chip comprising a first control element directly overlapping the SQUID region, a second control element displaced laterally from and without overlapping the control region, and a readout device directly overlapping the readout region, wherein the readout device comprises a resonator element electrically coupled to a pad element, wherein the pad element overlaps the readout region without the resonator element overlapping the readout region, wherein a surface area of the readout region that is facing the second chip is less than the surface area of the pad element facing the first chip, wherein the pad element is operable to electromagnetically couple to a portion of the superconducting qubit within the readout region, and wherein the first control element comprises a bias coil, the bias coil comprising a layer of superconductor material arranged in a loop having an inner loop edge and an outer loop edge, and the SQUID region comprises a SQUID arranged in a ring, wherein a lateral distance between an edge of an inner ring area of the SQUID region and the outer loop edge of the bias coil is larger than a lateral misalignment of the second chip bonded to the first chip; wherein the inner loop edge is aligned within the inner ring area, and the outer loop edge is aligned outside of the inner ring area. a first chip (202, 302) comprising a superconducting qubit, the superconducting qubit comprising a superconducting quantum interference device (SQUID) region, a control region and a readout region; a second chip (204, 304) bonded to the first chip, the second chip comprising a first control element directly overlapping the SQUID region, a second control element displaced laterally from and without overlapping the control region, and a readout device directly overlapping the readout region, wherein the readout device comprises a resonator element electrically coupled to a pad element, wherein the pad element overlaps the readout region without the resonator element overlapping the readout region, wherein a surface area of the readout region that is facing the second chip is less than the surface area of the pad element facing the first chip, wherein the pad element is operable to electromagnetically couple to a portion of the superconducting qubit within the readout region, and wherein the first control element comprises a bias coil, the bias coil comprising a layer of superconductor material arranged in a loop having an inner loop edge and an outer loop edge, and the SQUID region comprises a SQUID arranged in a ring, wherein a lateral distance between an edge of an inner ring area of the SQUID region and the outer loop edge of the bias coil is larger than a lateral misalignment of the second chip bonded to the first chip; wherein the inner loop edge is aligned within the inner ring area, and the outer loop edge is aligned outside of the inner ring area.
A method, performed by a memory controller, of mapping a first logical memory address to an address in a memory system, the method comprising: receiving a memory allocation request, the memory allocation request including the first logical memory address; mapping the first logical memory address to an address in a first memory region of the memory system based on thermal data for memory regions of the memory system; characterised by storing the thermal data in a table, wherein the thermal data includes temperature data for corresponding memory regions of the memory system; and maintaining an ordered list of memory regions of the memory device in the table, wherein the ordered list is ordered from lowest to highest temperature wherein the temperature data is read periodically, and wherein time intervals between readings of the thermal data are adjusted based on the temperature data. receiving a memory allocation request, the memory allocation request including the first logical memory address; mapping the first logical memory address to an address in a first memory region of the memory system based on thermal data for memory regions of the memory system; characterised by storing the thermal data in a table, wherein the thermal data includes temperature data for corresponding memory regions of the memory system; and maintaining an ordered list of memory regions of the memory device in the table, wherein the ordered list is ordered from lowest to highest temperature wherein the temperature data is read periodically, and wherein time intervals between readings of the thermal data are adjusted based on the temperature data.
Method for diagnosing an accumulator or battery employing an aqueous electrolyte, and especially a lead-acid battery, comprising the following steps: a/ continuously measuring an over-charging current (I ovch) applied to the battery; b/ periodically measuring, under DC current, the internal resistance (R 120s) of the battery; c/ normalizing a parameter derived from the over-charging current measured in step a/ and the internal resistance measured in step b/; d/ estimating the deviation of the logarithm of the internal resistance normalized in step c/, considered for the parameter derived from the over-charging current normalized in step c/, with respect to a straight calibration line, obtained from a linear regression of calibration measurements of internal resistance and over-charging current of a reference battery; e/ comparing the estimated deviation (Δ) to a predetermined threshold value depending on the type of battery: • if the deviation is positive and higher than this threshold value then the battery needs to be changed because of its premature ageing; • if the deviation is negative and lower than this threshold value then there is no need to change the battery. a/ continuously measuring an over-charging current (I ovch) applied to the battery; b/ periodically measuring, under DC current, the internal resistance (R 120s) of the battery; c/ normalizing a parameter derived from the over-charging current measured in step a/ and the internal resistance measured in step b/; d/ estimating the deviation of the logarithm of the internal resistance normalized in step c/, considered for the parameter derived from the over-charging current normalized in step c/, with respect to a straight calibration line, obtained from a linear regression of calibration measurements of internal resistance and over-charging current of a reference battery; e/ comparing the estimated deviation (Δ) to a predetermined threshold value depending on the type of battery: • if the deviation is positive and higher than this threshold value then the battery needs to be changed because of its premature ageing; • if the deviation is negative and lower than this threshold value then there is no need to change the battery. • if the deviation is positive and higher than this threshold value then the battery needs to be changed because of its premature ageing; • if the deviation is negative and lower than this threshold value then there is no need to change the battery.