mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for adjusting a charging condition of a secondary battery , the apparatus comprising: a current measuring unit configured to measure a charging current of the secondary battery; a temperature measuring unit configured to measure a current temperature of the secondary battery; and a controller coupled to the current measuring unit and the temperature measuring unit, wherein the controller is configured to receive measurement results from the current measuring unit and the temperature measuring unit to determine a charging current value and a current temperature value, characterised in that the controller is further configured to determine a predicted charging current capable of generating, as Joule's heat through an internal resistance of the secondary battery, a heat amount required to raise the temperature of the secondary battery from the current temperature to a threshold temperature within a preset reference time, determine a predicted charging voltage expected when the predicted charging current flows through an equivalent circuit of the secondary battery, and when a condition of the predicted charging voltage being lower than a preset upper limit charging voltage is satisfied, adjust the upper limit charging voltage such that the upper limit charging voltage is lowered to the predicted charging voltage. a current measuring unit configured to measure a charging current of the secondary battery; a temperature measuring unit configured to measure a current temperature of the secondary battery; and a controller coupled to the current measuring unit and the temperature measuring unit, wherein the controller is configured to receive measurement results from the current measuring unit and the temperature measuring unit to determine a charging current value and a current temperature value, characterised in that the controller is further configured to determine a predicted charging current capable of generating, as Joule's heat through an internal resistance of the secondary battery, a heat amount required to raise the temperature of the secondary battery from the current temperature to a threshold temperature within a preset reference time, determine a predicted charging voltage expected when the predicted charging current flows through an equivalent circuit of the secondary battery, and when a condition of the predicted charging voltage being lower than a preset upper limit charging voltage is satisfied, adjust the upper limit charging voltage such that the upper limit charging voltage is lowered to the predicted charging voltage.
A roller door comprising a door leaf which is movable between an open position, in which it at least partially uncovers a wall opening and preferably forms a multi-layer winding at least partially above the wall opening, and a closed position, in which it at least partially closes the wall opening, said door leaf having a plurality of door leaf segments arranged one behind the other in a direction of movement of the door leaf, wherein at least one stabilizing device extending perpendicular to the direction of movement of the door leaf is arranged between two door leaf segments, and mutually facing edge regions of the door leaf segments are held on the stabilizing device , wherein at least one edge region of at least one segment is held in a floating manner on the stabilizing device to enable a relative movement of this edge region with respect to the stabilizing device at least in the direction of movement of the door leaf, and wherein a constraining arrangement is provided to limit the relative movement of the floatingly held edge region with respect to the stabilizing device, characterised in that the constraining arrangement includes a widening of the floatingly held edge region in a thickness direction perpendicular to the plane of the door leaf which is defined by the direction of movement of the door leaf and the stabilizing device , and a receptacle formed in the stabilizing device for the widening of the edge region which is held thereon in a floating manner, wherein the receptacle has a mouth through which a transition region of the segment between the widening and a region of the segment which is exposed outside the stabilizing device passes, wherein the width of the mouth, in the thickness direction, is greater than the thickness of the transition region in the thickness direction but less than the dimensions of the widening in the thickness direction.
A method for making an oil continuous nanoemulsion comprising the steps of: (a) combining, in no particular order, a first and a second oil continuous macroemulsion, the first macroemulsion having a pH from 10 to 14 and skin benefit agent in its water phase and the second macroemulsion having a pH from 2 to 5; (b) mixing the first and second macroemulsions to produce a mixture of macroemulsions, the mixture having macroemulsions with a pH from 10 to 14 and a pH from 2 to 5; and (c) shearing the mixture of macroemulsions to produce a nanoemulsion having a particle size from 150 to 900 nm, the nanoemulsion comprising 0.15 to 5% by weight skin benefit agent in its water phase. (a) combining, in no particular order, a first and a second oil continuous macroemulsion, the first macroemulsion having a pH from 10 to 14 and skin benefit agent in its water phase and the second macroemulsion having a pH from 2 to 5; (b) mixing the first and second macroemulsions to produce a mixture of macroemulsions, the mixture having macroemulsions with a pH from 10 to 14 and a pH from 2 to 5; and (c) shearing the mixture of macroemulsions to produce a nanoemulsion having a particle size from 150 to 900 nm, the nanoemulsion comprising 0.15 to 5% by weight skin benefit agent in its water phase.
A method of in silico predicting an HLA-type for a patient, comprising: providing a reference sequence that includes a plurality of sequences of known and distinct HLA alleles; providing a plurality of patient sequence reads, wherein at least some of the patient sequence reads include a sequence encoding a patient specific HLA; decomposing the plurality of patient sequence reads into a plurality of respective sets of k-mers; generating a composite de Bruijn graph using the reference sequence and the plurality of respective sets of k-mers; ranking each of the known and distinct HLA alleles using a composite match score that is calculated from respective votes of the plurality of patient sequence reads, and wherein each vote uses k-mers that match corresponding segments in the known and distinct HLA alleles; identifying a top-ranking HLA allele as a first HLA-type of the patient; re-ranking remaining non-top-ranking known and distinct HLA alleles using an adjusted composite match score to identify an adjusted top-ranking HLA allele as a second HLA-type of the patient; and wherein the adjusted composite match score is calculated by reducing, but not eliminating, a weighted vote of all k-mers that are matched to the first HLA allele to weigh genetically less related HLA alleles more, wherein the weighted vote is reduced by 10% or more, and wherein the vote is a value representing a fraction of matching k-mers to total number of k-mers per patient sequence read. providing a reference sequence that includes a plurality of sequences of known and distinct HLA alleles; providing a plurality of patient sequence reads, wherein at least some of the patient sequence reads include a sequence encoding a patient specific HLA; decomposing the plurality of patient sequence reads into a plurality of respective sets of k-mers; generating a composite de Bruijn graph using the reference sequence and the plurality of respective sets of k-mers; ranking each of the known and distinct HLA alleles using a composite match score that is calculated from respective votes of the plurality of patient sequence reads, and wherein each vote uses k-mers that match corresponding segments in the known and distinct HLA alleles; identifying a top-ranking HLA allele as a first HLA-type of the patient; re-ranking remaining non-top-ranking known and distinct HLA alleles using an adjusted composite match score to identify an adjusted top-ranking HLA allele as a second HLA-type of the patient; and wherein the adjusted composite match score is calculated by reducing, but not eliminating, a weighted vote of all k-mers that are matched to the first HLA allele to weigh genetically less related HLA alleles more, wherein the weighted vote is reduced by 10% or more, and wherein the vote is a value representing a fraction of matching k-mers to total number of k-mers per patient sequence read.
A method of deploying distributed acoustic sensing (DAS) sensors in a subterranean well , the method comprising: releasing a torpedo into gravity-driven advancement within a first portion of a wellbore of a subterranean well , the torpedo comprising: a distributed acoustic sensing (DAS) fiber-optic (FO) umbilical that is physically coupled to a surface component and configured to unspool from the torpedo as the torpedo advances in the wellbore ; and an engine configured to generate thrust to propel advancement of the torpedo in the wellbore ; determining that the torpedo has reached a trigger point within the wellbore ; and activating, in response to determining that the torpedo has reached the trigger point within the wellbore , the engine to generate forward thrust to propel the torpedo within a horizontal portion of the wellbore such that at least some of the DAS FO umbilical is disposed in the horizontal portion of the wellbore , and the torpedo comes to rest at a deployment location within the wellbore . releasing a torpedo into gravity-driven advancement within a first portion of a wellbore of a subterranean well , the torpedo comprising: a distributed acoustic sensing (DAS) fiber-optic (FO) umbilical that is physically coupled to a surface component and configured to unspool from the torpedo as the torpedo advances in the wellbore ; and an engine configured to generate thrust to propel advancement of the torpedo in the wellbore ; a distributed acoustic sensing (DAS) fiber-optic (FO) umbilical that is physically coupled to a surface component and configured to unspool from the torpedo as the torpedo advances in the wellbore ; and an engine configured to generate thrust to propel advancement of the torpedo in the wellbore ; determining that the torpedo has reached a trigger point within the wellbore ; and activating, in response to determining that the torpedo has reached the trigger point within the wellbore , the engine to generate forward thrust to propel the torpedo within a horizontal portion of the wellbore such that at least some of the DAS FO umbilical is disposed in the horizontal portion of the wellbore , and the torpedo comes to rest at a deployment location within the wellbore .
A rail wiring duct having a top, a bottom, and a side, the rail wiring duct comprising: a base having a top wall , a bottom wall , a sidewall , and a divider wall , the top wall, the bottom wall, the sidewall, and the divider wall defining a plurality of channels and a plurality of channel openings for accessing the channels; and a cover for each of the channel openings, the cover having a top wall and a sidewall substantially perpendicular to the top wall, wherein the top wall of the cover is removably connected to the top wall of the base and the sidewall of the cover is rotatably connected to the sidewall of the base such that the channels are accessible through the channel openings from the top and the side of the rail wiring duct when the cover is rotated from a closed position (CP) to an open position (OP), and wherein the bottom wall of the base includes a first wall section and a second wall section , the first wall section being thicker that the second wall section. a base having a top wall , a bottom wall , a sidewall , and a divider wall , the top wall, the bottom wall, the sidewall, and the divider wall defining a plurality of channels and a plurality of channel openings for accessing the channels; and a cover for each of the channel openings, the cover having a top wall and a sidewall substantially perpendicular to the top wall, wherein the top wall of the cover is removably connected to the top wall of the base and the sidewall of the cover is rotatably connected to the sidewall of the base such that the channels are accessible through the channel openings from the top and the side of the rail wiring duct when the cover is rotated from a closed position (CP) to an open position (OP), and wherein the bottom wall of the base includes a first wall section and a second wall section , the first wall section being thicker that the second wall section.
A process for the continuous preparation of 1,2-propylenediamine (1,2-PDA) and dimethyldiethylenetriamine (DMDETA) via reaction of monoisopropanolamine (MIPOA) with ammonia in the presence of hydrogen and a supported heterogeneous hydrogenation catalyst (catalyst), wherein the reaction is effected in a reactor in the liquid phase at an absolute pressure in the range from 60 to 170 bar and the reactor output is separated by distillation, wherein the reactor output is supplied to a first distillation column K1 in which ammonia is removed at a side draw or overhead, the bottoms output from K1 is supplied to a second distillation column K2 in which water is removed at a side draw or overhead, the bottoms output from K2 is supplied to a third distillation column K3 in which 1,2-PDA is removed at a side draw or overhead, the bottoms output from K3 is supplied to a fourth distillation column K4 in which DMDETA is removed in the bottoms, MIPOA is removed at a side draw and low boilers are removed overhead. the reactor output is supplied to a first distillation column K1 in which ammonia is removed at a side draw or overhead, the bottoms output from K1 is supplied to a second distillation column K2 in which water is removed at a side draw or overhead, the bottoms output from K2 is supplied to a third distillation column K3 in which 1,2-PDA is removed at a side draw or overhead, the bottoms output from K3 is supplied to a fourth distillation column K4 in which DMDETA is removed in the bottoms, MIPOA is removed at a side draw and low boilers are removed overhead.
An agricultural baler system , comprising: - a gathering device configured to gather crop material; - a bale chamber connected to said gathering device , said bale chamber includes at least one structural member having a longitudinal direction arranged in a direction of movement of the forming bale in said bale chamber , said structural member being coupled to a first support member and a second support member ; - a compressing device reciprocatably movable inside said baling chamber for periodically compressing the crop material in said bale chamber ; and - at least one sensor , said at least one sensor is coupled to said at least one structural member between said first support member and said second support member of said bale chamber , and in that said at least one sensor producing a signal, said signal containing information including at least a load on said compressing device and/or a density of a forming bale. characterized in that said at least one structural member has an end that is pivotally coupled to said first support member , said at least one sensor being located proximate to a mid-point between said first support member and said second support member . - a gathering device configured to gather crop material; - a bale chamber connected to said gathering device , said bale chamber includes at least one structural member having a longitudinal direction arranged in a direction of movement of the forming bale in said bale chamber , said structural member being coupled to a first support member and a second support member ; - a compressing device reciprocatably movable inside said baling chamber for periodically compressing the crop material in said bale chamber ; and - at least one sensor , said at least one sensor is coupled to said at least one structural member between said first support member and said second support member of said bale chamber , and in that said at least one sensor producing a signal, said signal containing information including at least a load on said compressing device and/or a density of a forming bale.
A system for detecting and isolating faults in a Flush Air Data System, FADS, comprising: a plurality of pressure ports flushed to a nose cap of a space vehicle in crucifix form; at least three pressure transducers connected to each pressure port by a pneumatic tube for measuring surface pressure from said plurality of pressure ports; a plurality of FADS Sensor Interface Modules, FSIM, each connected to said pressure transducers; a digital signal processor, DSP, based FADS electronics connected to the said FSIM, and a Mission Management Computer, MMC, connected to the output of the FADS electronics through direct as well as cross strapped connection, wherein said DSP and said MMC are adapted to detect faulty pressure port from said plurality of pressure ports by cross comparing at least three pressure readings between two nearest neighbours at each pressure port against predefined thresholds; isolating two blocked or failed pressure ports if the pressure difference between them exceeds said predefined threshold value. a plurality of pressure ports flushed to a nose cap of a space vehicle in crucifix form; at least three pressure transducers connected to each pressure port by a pneumatic tube for measuring surface pressure from said plurality of pressure ports; a plurality of FADS Sensor Interface Modules, FSIM, each connected to said pressure transducers; a digital signal processor, DSP, based FADS electronics connected to the said FSIM, and a Mission Management Computer, MMC, connected to the output of the FADS electronics through direct as well as cross strapped connection, wherein said DSP and said MMC are adapted to detect faulty pressure port from said plurality of pressure ports by cross comparing at least three pressure readings between two nearest neighbours at each pressure port against predefined thresholds; isolating two blocked or failed pressure ports if the pressure difference between them exceeds said predefined threshold value.
A method , performed in a serving cell, of operating a wireless communication network operating according to a duty cycle, the method characterized by : monitoring respective duty cycle budgets, relating to a ratio of the cumulative duration of transmissions within an observation interval, for the serving cell and one or more neighbor cells, wherein each duty cycle budget defines, for its respective cell, a percentage of time, within an observation interval, in which the respective cell is permitted to communicate data; and redirecting a User Equipment (UE) to a neighbor cell based on the duty cycle budget for the serving cell, for the UE to target the neighbour cell in cell selection procedure or in cell reselection procedure. monitoring respective duty cycle budgets, relating to a ratio of the cumulative duration of transmissions within an observation interval, for the serving cell and one or more neighbor cells, wherein each duty cycle budget defines, for its respective cell, a percentage of time, within an observation interval, in which the respective cell is permitted to communicate data; and redirecting a User Equipment (UE) to a neighbor cell based on the duty cycle budget for the serving cell, for the UE to target the neighbour cell in cell selection procedure or in cell reselection procedure.
A process for recovery of gold from gold-containing raw materials comprising refractory gold-containing minerals, in particular gold-containing refractory sulfidic minerals, comprising (a) obtaining gold-containing raw material comprising refractory gold-containing sulfidic minerals comprising first type of refractory sulfidic mineral having high gold content and second type of sulfidic mineral having low gold content, said first type and said second type of sulfidic minerals are to be classified within a single species of refractory sulfidic minerals; (b) forming a mineral pulp comprising first type of refractory sulfidic mineral particles having high gold content and second type of sulfidic mineral particles having low gold content by suspending ground gold-containing material in water and optionally further milling the material; (c) conditioning the mineral pulp by addition of a surface modifying chemical for modifying the surface of the first type of refractory sulfidic mineral particles having high content thus making the said particles non-floatable to obtain a conditioned pulp; (d) subjecting the conditioned pulp to a froth flotation process to separate first type of refractory sulfidic mineral particles having high gold content from the second type of sulfidic mineral particles having low gold content; (e) recovering the non-floatable first type of refractory sulfidic mineral particles having high gold content as flotation tailings; (f) pressure oxidizing (POX) the flotation tailings recovered in step (e) to obtain a discharge slurry comprising liberated gold; and (g) recovering gold from the discharge slurry obtained in step (f). (a) obtaining gold-containing raw material comprising refractory gold-containing sulfidic minerals comprising first type of refractory sulfidic mineral having high gold content and second type of sulfidic mineral having low gold content, said first type and said second type of sulfidic minerals are to be classified within a single species of refractory sulfidic minerals; (b) forming a mineral pulp comprising first type of refractory sulfidic mineral particles having high gold content and second type of sulfidic mineral particles having low gold content by suspending ground gold-containing material in water and optionally further milling the material; (c) conditioning the mineral pulp by addition of a surface modifying chemical for modifying the surface of the first type of refractory sulfidic mineral particles having high content thus making the said particles non-floatable to obtain a conditioned pulp; (d) subjecting the conditioned pulp to a froth flotation process to separate first type of refractory sulfidic mineral particles having high gold content from the second type of sulfidic mineral particles having low gold content; (e) recovering the non-floatable first type of refractory sulfidic mineral particles having high gold content as flotation tailings; (f) pressure oxidizing (POX) the flotation tailings recovered in step (e) to obtain a discharge slurry comprising liberated gold; and (g) recovering gold from the discharge slurry obtained in step (f).