mhurhangee/ep-ind-claims huggingface dataset:
A braking control apparatus for a vehicle, the vehicle being equipped with a brake device configured to control braking pressures of a rear-right wheel and a rear-left wheel independently of each other, wherein a control performed by the braking control apparatus includes performing right and left wheel independent control for controlling the braking pressures of the rear-right wheel and the rear-left wheel independently of each other such that a slip degree of each of the rear-right wheel and the rear-left wheel approaches a target slip degree as an average of slip degrees of a front-right wheel and a front-left wheel, characterized in that the braking control apparatus is configured to start the right and left wheel independent control when a deceleration of the vehicle is equal to or larger than a first predetermined value in a low-speed range of the vehicle, and start the right and left wheel independent control when the deceleration is equal to or larger than a second predetermined value that is smaller than the first predetermined value in a high-speed range, the high-speed range being higher range in speed than the low-speed range, and the right and left wheel independent control that is started in the high-speed range includes a braking pressure control process that increases the braking pressure of the rear wheel located on an outside during occurrence of deflection of the vehicle resulting from braking and that prohibits the braking pressure of the rear wheel located on an inside during occurrence of the deflection from being increased, when there is a demand to increase the braking pressures of both the rear-right wheel and the rear-left wheel. characterized in that the braking control apparatus is configured to start the right and left wheel independent control when a deceleration of the vehicle is equal to or larger than a first predetermined value in a low-speed range of the vehicle, and start the right and left wheel independent control when the deceleration is equal to or larger than a second predetermined value that is smaller than the first predetermined value in a high-speed range, the high-speed range being higher range in speed than the low-speed range, and
An automatic machine (10, 110) for dry removal of seasoning lard paste from hams which comprises at least a substantially vertical rest and retaining plane (20, 120) suitable to come into contact with the rear surface of a ham, and further comprising loading means (70, 250) able to bring at least a ham to the rest plane (20, 120) in a hanging configuration, at least a rotating brush (40, 140) and movement means (50, 150) able to move the rotating brush (40, 140) and/or the rest plane (20, 120) in respect of one another in such a way as to put the brush into contact with at least a portion of the front surface of the ham.
A method of forming a microelectromechanical system (MEMS) device for a gas chromatograph, comprising: providing a silicon-on-insulator wafer including a base layer, a device layer above the base layer, and a buried oxide layer between the base layer and a lower surface of the device layer; etching a plurality of trenches from an upper surface of the device layer to the buried oxide layer, the trenches spaced along a sequential path in the device layer; releasing a portion of the buried oxide layer through the trenches; and annealing the SOI wafer to seal off the trenches at the upper and lower surfaces (312, 314) of the device layer so as to form (i) one or more atomic-smooth, continuous channels (310, 334) within the device layer and (ii) a cavity bounded by the base layer, the buried oxide layer, and the lower surface of the device layer; wherein the annealing of the SOI wafer enables portions of silicon in the device layer to migrate across the trenches near the upper and the lower surfaces (312, 314) of the device layer and seal off the trenches at the upper and the lower surfaces (312, 314); wherein the continued migration of the silicon portions across the trenches and from between adjacent trenches results in the formation of the one or more atomic-smooth, continuous channels (310, 334) through the device layer; and wherein the sealing off of the trenches at the lower surface of the device layer due to the annealing of the SOI wafer also defines the cavity. providing a silicon-on-insulator wafer including a base layer, a device layer above the base layer, and a buried oxide layer between the base layer and a lower surface of the device layer; etching a plurality of trenches from an upper surface of the device layer to the buried oxide layer, the trenches spaced along a sequential path in the device layer; releasing a portion of the buried oxide layer through the trenches; and annealing the SOI wafer to seal off the trenches at the upper and lower surfaces (312, 314) of the device layer so as to form (i) one or more atomic-smooth, continuous channels (310, 334) within the device layer and (ii) a cavity bounded by the base layer, the buried oxide layer, and the lower surface of the device layer; wherein the annealing of the SOI wafer enables portions of silicon in the device layer to migrate across the trenches near the upper and the lower surfaces (312, 314) of the device layer and seal off the trenches at the upper and the lower surfaces (312, 314); wherein the continued migration of the silicon portions across the trenches and from between adjacent trenches results in the formation of the one or more atomic-smooth, continuous channels (310, 334) through the device layer; and wherein the sealing off of the trenches at the lower surface of the device layer due to the annealing of the SOI wafer also defines the cavity.
A brazing sheet for surface joining configured to be placed at a joint interface between two Al members (12 and 14, 16) in order to join together the two Al members by a fluxless brazing process practiced in an inert gas atmosphere, characterized in that: said brazing sheet is an aluminum brazing sheet in which a filler metal is cladded on each of opposite surfaces of a core material consisting of aluminum or an aluminum alloy optionally containing 0.2-1.6% by mass of Mg; the filler metal consists of an aluminum alloy consisting of 3.5-6.5% by mass of Si, at least one of 0.004-0.1% by mass of Li, 0.002-0.05% by mass of Be, 0.05-0.4% by mass of Mg and 0.004-0.2% by mass of Bi, and the balance of aluminum and inevitable impurities; and a clad percentage of the filler metal cladded on each of the opposite surfaces of the core material is not lower than 35%. said brazing sheet is an aluminum brazing sheet in which a filler metal is cladded on each of opposite surfaces of a core material consisting of aluminum or an aluminum alloy optionally containing 0.2-1.6% by mass of Mg; the filler metal consists of an aluminum alloy consisting of 3.5-6.5% by mass of Si, at least one of 0.004-0.1% by mass of Li, 0.002-0.05% by mass of Be, 0.05-0.4% by mass of Mg and 0.004-0.2% by mass of Bi, and the balance of aluminum and inevitable impurities; and a clad percentage of the filler metal cladded on each of the opposite surfaces of the core material is not lower than 35%.
A coil component (1000, 1000', 2000, 3000) comprising: a magnetic core (10, 2100, 3100); a bobbin (100, 2200, 3200) configured to accommodate the magnetic core; at least one pair of coils (200, 2300, 3300) wound outside the bobbin, wherein the bobbin is a heat radiation member characterized in that the heat radiation member includes a polymer matrix and a plurality of graphite-nano metal composites which are dispersed on the polymer matrix, and each of the graphite-nano metal composites includes nano metal particles bonded to a surface of graphite, and an insulating heat radiation coating layer (104, 300, 2400, 3400) formed of an insulating heat radiation coating composition on an outer surface of the bobbin comprising a coating layer-forming component including a main resin and an insulating heat radiation filler having an average particle diameter of 10 nm to 15 μm and having a D50 to D97 ratio that is less than or equal to 1:4.5, and wherein the main resin is a curable resin, and the insulating heat radiation coating composition further includes a curing agent included in an amount of 40-80 parts by weight with respect to 100 parts by weight of the main resin. a magnetic core (10, 2100, 3100); a bobbin (100, 2200, 3200) configured to accommodate the magnetic core; at least one pair of coils (200, 2300, 3300) wound outside the bobbin, wherein the bobbin is a heat radiation member characterized in that the heat radiation member includes a polymer matrix and a plurality of graphite-nano metal composites which are dispersed on the polymer matrix, and each of the graphite-nano metal composites includes nano metal particles bonded to a surface of graphite, and an insulating heat radiation coating layer (104, 300, 2400, 3400) formed of an insulating heat radiation coating composition on an outer surface of the bobbin comprising a coating layer-forming component including a main resin and an insulating heat radiation filler having an average particle diameter of 10 nm to 15 μm and having a D50 to D97 ratio that is less than or equal to 1:4.5, and wherein the main resin is a curable resin, and the insulating heat radiation coating composition further includes a curing agent included in an amount of 40-80 parts by weight with respect to 100 parts by weight of the main resin.
A geothermal energy recovery system, coupled to a geothermal reservoir via an injection well and an extraction well, the system comprising: a phase separator having an input port coupled to the extraction well and receiving an extracted working fluid including carbon dioxide and hydrocarbons therefrom, the phase separator operative to separate liquid and vapor portions of the extracted working fluid; a controllable separator unit coupled downstream from the phase separator and receiving the vapor portion of the extracted working fluid therefrom, characterised in that: the separator unit is controllably operable to separate components of the received vapor portion based on chemical composition and to selectively mix the separated components into a modified working fluid based on detected process and ambient conditions of the extracted working fluid, wherein the modified working fluid has a chemical composition that is optimized for energy recovery efficiency; and an expander coupled downstream from the controllable separator unit and operable to generate mechanical or electrical energy from expansion of the modified working fluid. a phase separator having an input port coupled to the extraction well and receiving an extracted working fluid including carbon dioxide and hydrocarbons therefrom, the phase separator operative to separate liquid and vapor portions of the extracted working fluid; a controllable separator unit coupled downstream from the phase separator and receiving the vapor portion of the extracted working fluid therefrom, characterised in that: the separator unit is controllably operable to separate components of the received vapor portion based on chemical composition and to selectively mix the separated components into a modified working fluid based on detected process and ambient conditions of the extracted working fluid, wherein the modified working fluid has a chemical composition that is optimized for energy recovery efficiency; and an expander coupled downstream from the controllable separator unit and operable to generate mechanical or electrical energy from expansion of the modified working fluid. the separator unit is controllably operable to separate components of the received vapor portion based on chemical composition and to selectively mix the separated components into a modified working fluid based on detected process and ambient conditions of the extracted working fluid, wherein the modified working fluid has a chemical composition that is optimized for energy recovery efficiency; and an expander coupled downstream from the controllable separator unit and operable to generate mechanical or electrical energy from expansion of the modified working fluid.
In a telecommunication system, a method of controlling and implementing transmission schemes between a first network element and a second network element, said second network element having multiple transmit antenna capability comprising the steps of: i) measuring at least one parameter and or characteristic of a radio channel between the second network element and the first network element; characterized by ii) based on step i) initialising and/or selecting a first precoding scheme at said first network element using precoding information defined for a second pre-coding scheme, wherein said first precoding scheme changes slower than said second precoding scheme; iii) forwarding a control message from said first network element to said second network element indicating said first precoding scheme; iv) storing data pertaining to said first precoding scheme by said second network element; v) transmitting, using pre-existing scheduling grants defined for said second precoding scheme, signals between the network elements (1; 10) according to said first precoding scheme. i) measuring at least one parameter and or characteristic of a radio channel between the second network element and the first network element; characterized by ii) based on step i) initialising and/or selecting a first precoding scheme at said first network element using precoding information defined for a second pre-coding scheme, wherein said first precoding scheme changes slower than said second precoding scheme; iii) forwarding a control message from said first network element to said second network element indicating said first precoding scheme; iv) storing data pertaining to said first precoding scheme by said second network element; v) transmitting, using pre-existing scheduling grants defined for said second precoding scheme, signals between the network elements (1; 10) according to said first precoding scheme.
A process to prepare lubricating oil basestocks from a lube oil boiling range feedstock comprising: a) contacting a lube oil boiling range feedstock with a stacked bed hydrotreating catalyst system comprising at least a first and second hydrotreating catalyst in a reaction stage operated under effective hydrotreating conditions thereby producing a hydrotreated effluent comprising at least a gaseous product and a hydrotreated lubricating oil boiling range feedstock, wherein the second hydrotreating catalyst is downstream, in relation to the flow of the lubricating oil feedstock, from the first hydrotreating catalyst; and b) stripping the hydrotreated effluent to remove at least a portion of the gaseous product from the hydrotreated effluent thereby producing at least a lubricating oil basestock; wherein said first hydrotreating catalyst is selected from supported hydrotreating catalysts comprising 2 to 20 wt.% of at least one Group VIII metal, and 5 to 50 wt.% of at least one Group VI metal on a high surface area support material and having an average pore diameter of greater than 10nm, as measured by water adsorption porosimetry, and said second hydrotreating catalyst is selected from bulk metal hydrotreating catalyst comprising 30 to 100 wt.% of at least one Group VIII non-noble metal and at least one Group VIB metal, based on the total weight of the bulk catalyst particles, calculated as metal oxides and wherein the bulk catalyst particles have a surface area of at least 10 m 2 /g, and wherein the stacked bed hydrotreating catalyst system comprises 5-95 vol.% of the first hydrotreating catalyst with the second hydrotreating catalyst comprising the remainder. a) contacting a lube oil boiling range feedstock with a stacked bed hydrotreating catalyst system comprising at least a first and second hydrotreating catalyst in a reaction stage operated under effective hydrotreating conditions thereby producing a hydrotreated effluent comprising at least a gaseous product and a hydrotreated lubricating oil boiling range feedstock, wherein the second hydrotreating catalyst is downstream, in relation to the flow of the lubricating oil feedstock, from the first hydrotreating catalyst; and b) stripping the hydrotreated effluent to remove at least a portion of the gaseous product from the hydrotreated effluent thereby producing at least a lubricating oil basestock;
An aluminum alloy, comprising 0.01 to 0.05 wt. % Si, 0.01 to 0.08 wt. % Fe, 0.01 to 0.05 wt. % Cu, 0.4 to 0.5 wt. % Mn, 3.0 to 4.0 wt. % Mg, 0.001 to 0.05 wt. % Cr, 0.001 to 0.05 wt. % Zn, 0.001 to 0.03 wt. % Ti, and up to 0.15 wt. % of impurities, with the remainder as Al.
A battery charger for battery cell assemblies (100A, 100B), the battery charger comprising: an accommodating part for accommodating a plurality of cell assemblies, each cell assembly including a group of cells connected in series and having a pair of charging terminals (CH, CO) and an engagement member (320A, 320B) adapted to be engaged with another cell assembly for providing stacked cell assemblies; first and second terminal plates (503A, 503B) formed in the surface of the accommodating part and adapted to come into contact with the charging terminals of the respective first and second cell assemblies; a switching element for interrupting voltage from an AC power source; a unit for rectifying and smoothing the voltage interrupted by the switching element; and a unit for applying the smoothed DC voltage to the first and second cell assemblies via the respective first and second terminal plates. an accommodating part for accommodating a plurality of cell assemblies, each cell assembly including a group of cells connected in series and having a pair of charging terminals (CH, CO) and an engagement member (320A, 320B) adapted to be engaged with another cell assembly for providing stacked cell assemblies; first and second terminal plates (503A, 503B) formed in the surface of the accommodating part and adapted to come into contact with the charging terminals of the respective first and second cell assemblies; a switching element for interrupting voltage from an AC power source; a unit for rectifying and smoothing the voltage interrupted by the switching element; and a unit for applying the smoothed DC voltage to the first and second cell assemblies via the respective first and second terminal plates.
An apparatus comprising: a volume adjuster to apply a plurality of equalization adjustments to an audio signal to generate an equalized audio signal, the plurality of equalization adjustments output from a neural network in response to an input feature set including an average volume representation of the audio signal; a thresholding controller to: detect an irregularity in a frequency representation of the equalized audio signal after application of the plurality of equalization adjustments, the irregularity corresponding to a change in volume between adjacent frequency values (1708, 1710, 1712) exceeding a threshold; and adjust a volume at a first frequency value of the adjacent frequency values to reduce the irregularity; an equalization curve generator to generate an equalization curve to apply to the audio signal when the irregularity has been reduced; and a frequency to time domain converter to output the equalized audio signal in a time domain based on the equalization curve. a volume adjuster to apply a plurality of equalization adjustments to an audio signal to generate an equalized audio signal, the plurality of equalization adjustments output from a neural network in response to an input feature set including an average volume representation of the audio signal; a thresholding controller to: detect an irregularity in a frequency representation of the equalized audio signal after application of the plurality of equalization adjustments, the irregularity corresponding to a change in volume between adjacent frequency values (1708, 1710, 1712) exceeding a threshold; and adjust a volume at a first frequency value of the adjacent frequency values to reduce the irregularity; detect an irregularity in a frequency representation of the equalized audio signal after application of the plurality of equalization adjustments, the irregularity corresponding to a change in volume between adjacent frequency values (1708, 1710, 1712) exceeding a threshold; and adjust a volume at a first frequency value of the adjacent frequency values to reduce the irregularity; an equalization curve generator to generate an equalization curve to apply to the audio signal when the irregularity has been reduced; and a frequency to time domain converter to output the equalized audio signal in a time domain based on the equalization curve.
A compound having the following structure: or a pharmaceutically acceptable salt or diastereomer or enantiomer thereof, wherein: the dashed line is a single or a double bond; Y is H or CH 3; X is zero, one or two substituents on the cycloalkane or cycloalkene ring, said substituents chosen from the group consisting of H, C 1 - C 6 alkyl, hydroxyalkyl, aryl, halogen, cycloalkene, CF 3, C R, COCF 3, SO 2 N 2, SO 2 NH 2, NO 2, and CN; n is selected from the group consisting of 0, 1, 2, 3, or 4; R is C 1 - C 6 alkyl; R 2 is selected from the group consisting of H, C 1 - C 6 alkyl, hydroxyalkyl, phenyl or biphenyl; R 3 is selected form the group consisting of H, C R 5, SO 2 R 5, C 1 - C 6 alkyl; R 5 is C 1 -C 6 alkyl, haloalkyl including trifluoromethyl, aryl or heteroaryl; R 6 is CO 2 H, CH 3, CO 2 R 2, CH 2 OR 2, CONR 2 R 3 or tetrazol-5-yl; R 7 is selected from the group consisting of H, CF 3, OCH 3; and R 8 is selected form the group consisting of H and OCH 3. the dashed line is a single or a double bond; Y is H or CH 3; X is zero, one or two substituents on the cycloalkane or cycloalkene ring, said substituents chosen from the group consisting of H, C 1 - C 6 alkyl, hydroxyalkyl, aryl, halogen, cycloalkene, CF 3, C R, COCF 3, SO 2 N 2, SO 2 NH 2, NO 2, and CN; n is selected from the group consisting of 0, 1, 2, 3, or 4; R is C 1 - C 6 alkyl; R 2 is selected from the group consisting of H, C 1 - C 6 alkyl, hydroxyalkyl, phenyl or biphenyl; R 3 is selected form the group consisting of H, C R 5, SO 2 R 5, C 1 - C 6 alkyl; R 5 is C 1 -C 6 alkyl, haloalkyl including trifluoromethyl, aryl or heteroaryl; R 6 is CO 2 H, CH 3, CO 2 R 2, CH 2 OR 2, CONR 2 R 3 or tetrazol-5-yl; R 7 is selected from the group consisting of H, CF 3, OCH 3; and R 8 is selected form the group consisting of H and OCH 3.
A coated seed obtainable by coating a seed with a coating material containing an inorganic mineral powder and a thermosetting resin powder, wherein the thermosetting resin powder has an average particle diameter of 10 to 200 μm, and wherein the thermosetting resin powder is a thermosetting resin powder obtainable by hardening a powdery pesticide with a thermosetting resin.