mhurhangee/ep-ind-claims huggingface dataset:
ORE DUST SUPPRESSANT RESIN, characterized by the fact that it is a resin of depolymerization ethylene terephthalate polymer product obtained by a process comprising the steps of: i) depolymerization of clean fragments of post-consumer polyethylene terephthalate (PETpc) in the presence of hexadecyltrimethylammonium bromide (CTAB) and an alkaline medium for a duration of 1 to 2 hours, at a temperature in the range of 90 to 110°C; ii) neutralization of the reaction medium after completion of the depolymerization reaction and precipitation of the terephthalic acid monomer; iii) filtration of the remaining medium containing ethylene glycol and extraction of excess of complementary salt with alcoholic solvent; iv) subjection of the solution obtained in step iii) to an evaporation process to remove excess water, thus obtaining an intermediate resin; v) addition of an viscosity increasing agent selected from the group consisting of pyrrolidones, preferably polyvinylpyrrolidone, to the intermediate resin obtained in step iv), obtaining an ore dust suppressant resin, and optionally vi) addition of an agent to increase the hydrophobicity of the ore dust suppressant resin obtained in step v). i) depolymerization of clean fragments of post-consumer polyethylene terephthalate (PETpc) in the presence of hexadecyltrimethylammonium bromide (CTAB) and an alkaline medium for a duration of 1 to 2 hours, at a temperature in the range of 90 to 110°C; ii) neutralization of the reaction medium after completion of the depolymerization reaction and precipitation of the terephthalic acid monomer; iii) filtration of the remaining medium containing ethylene glycol and extraction of excess of complementary salt with alcoholic solvent; iv) subjection of the solution obtained in step iii) to an evaporation process to remove excess water, thus obtaining an intermediate resin; v) addition of an viscosity increasing agent selected from the group consisting of pyrrolidones, preferably polyvinylpyrrolidone, to the intermediate resin obtained in step iv), obtaining an ore dust suppressant resin, and optionally vi) addition of an agent to increase the hydrophobicity of the ore dust suppressant resin obtained in step v).
A display method, applied to an electronic device configured with a foldable screen, wherein the foldable screen comprises a first display area and a second display area, wherein the first display area is a display area of the foldable screen in a folded state, and the second display area is another display area of the foldable screen in the folded state; the first display area is a display area of the foldable screen in a folded state, and the second display area is an entire display area of the foldable screen in an expanded state; or the first display area is an entire display area of the foldable screen in an expanded state, and the second display area is another display area of the foldable screen in a folded state; and the method comprises: determining the first display area as a display area at which a user gazes; obtaining (S 1502) information about a notch area of the first display area; adjusting a display area of an application interface based on the information about the notch area of the first display area, wherein the application interface is an interface that is being presented in the second display area; and presenting an adjusted application interface in the first display area. determining the first display area as a display area at which a user gazes; obtaining (S 1502) information about a notch area of the first display area; adjusting a display area of an application interface based on the information about the notch area of the first display area, wherein the application interface is an interface that is being presented in the second display area; and presenting an adjusted application interface in the first display area.
A registration method for a virtual optical network unit, ONU, comprising: receiving, by N virtual ONUs in a serial number, SN, state, an SN request sent by an optical line terminal, OLT; wherein N is a natural number greater than or equal to 2; sending, by each virtual ONU, an SN response to the OLT to enable the OLT to register each virtual ONU according to each SN response; wherein sending, by each virtual ONU, the SN response to the OLT, comprises: calculating, by each virtual ONU, a sending time corresponding to each SN response; sending, by each virtual ONU, the SN response to the OLT according to the sending time corresponding to each SN response; wherein each virtual ONU calculates the sending time corresponding to each SN response according to the following formula: a sending time corresponding to an i-th SN response = a start time + a response time + a random delay + a preset time interval × i; wherein i is a natural number greater than or equal to 0 and less than or equal to N-1. receiving, by N virtual ONUs in a serial number, SN, state, an SN request sent by an optical line terminal, OLT; wherein N is a natural number greater than or equal to 2; sending, by each virtual ONU, an SN response to the OLT to enable the OLT to register each virtual ONU according to each SN response; wherein sending, by each virtual ONU, the SN response to the OLT, comprises: calculating, by each virtual ONU, a sending time corresponding to each SN response; sending, by each virtual ONU, the SN response to the OLT according to the sending time corresponding to each SN response; wherein each virtual ONU calculates the sending time corresponding to each SN response according to the following formula: a sending time corresponding to an i-th SN response = a start time + a response time + a random delay + a preset time interval × i; wherein i is a natural number greater than or equal to 0 and less than or equal to N-1. calculating, by each virtual ONU, a sending time corresponding to each SN response; sending, by each virtual ONU, the SN response to the OLT according to the sending time corresponding to each SN response; wherein each virtual ONU calculates the sending time corresponding to each SN response according to the following formula: a sending time corresponding to an i-th SN response = a start time + a response time + a random delay + a preset time interval × i; wherein i is a natural number greater than or equal to 0 and less than or equal to N-1.
An impedance tuner, comprising: a controller; an RF transmission line; a movable capacitive object configured for movement commanded by the controller relative to the transmission line to alter impedance; a position sensor (2,3) configured to provide position feedback data to the controller indicative of any one of a number of different actual positions of the capacitive object after it is moved; and wherein the controller is configured to utilize the position feedback data in a closed loop to position the capacitive object at a desired position within a tolerance. a controller; an RF transmission line; a movable capacitive object configured for movement commanded by the controller relative to the transmission line to alter impedance; a position sensor (2,3) configured to provide position feedback data to the controller indicative of any one of a number of different actual positions of the capacitive object after it is moved; and wherein the controller is configured to utilize the position feedback data in a closed loop to position the capacitive object at a desired position within a tolerance.
A laying method for producing a ceiling and/or wall covering from panels, having the steps of: - arranging a plurality of panels on an existing wall or ceiling, - wherein the panels are arranged in rows (5, 13) and are connected to one another by means of intrinsically adhesive-free corresponding locking profiles in the region of the longitudinal sides and transverse sides, wherein the locking profiles ensure that no surface offset occurs in the covering plane between the panels and no unintended gaps occur between the panels, and - prior to connecting the panels of a second row of panels along the longitudinal sides to the panels of a first row of panels, an adhesive is arranged in the region of the locking profiles on the longitudinal sides, wherein by connecting the panels along the longitudinal sides, an adhesive connection is produced in the region of the locking profiles on the longitudinal sides in addition to the locking connection, characterized in that - the panels are connected in the region of the longitudinal sides by locking profiles which are configured as rotating profiles and/or swiveling profiles and, in the region of the transverse sides, by vertical latching profiles or by means of separate locking bodies which engage in the locking profiles of a first and of a second panel. - arranging a plurality of panels on an existing wall or ceiling, - wherein the panels are arranged in rows (5, 13) and are connected to one another by means of intrinsically adhesive-free corresponding locking profiles in the region of the longitudinal sides and transverse sides, wherein the locking profiles ensure that no surface offset occurs in the covering plane between the panels and no unintended gaps occur between the panels, and - prior to connecting the panels of a second row of panels along the longitudinal sides to the panels of a first row of panels, an adhesive is arranged in the region of the locking profiles on the longitudinal sides, wherein by connecting the panels along the longitudinal sides, an adhesive connection is produced in the region of the locking profiles on the longitudinal sides in addition to the locking connection, - the panels are connected in the region of the longitudinal sides by locking profiles which are configured as rotating profiles and/or swiveling profiles and, in the region of the transverse sides, by vertical latching profiles or by means of separate locking bodies which engage in the locking profiles of a first and of a second panel.
Beverage preparation machine comprising at least one nozzle for dispensing coffee and a rotary stirring device comprising a rotary tool around an axis A and intended to cooperate with a preparation contained in a container, said rotary stirring device comprising a conduit for routing hot water and/or steam to the rotary tool characterised in that it comprises a dispensing head which comprises at least one nozzle for dispensing coffee and the rotary stirring device, said dispensing head being movable between a high standby position in which the coffee dispensing nozzle and the rotary tool are located above the container and a low working position in which the rotary tool is located in the container and the nozzle coffee dispenser is arranged above an upper opening of the container.
A reverse-phase suspension polymerisation process for the manufacture of polymer beads comprising forming aqueous monomer beads of an aqueous solution comprising water-soluble ethylenically unsaturated monomer or monomer blend and polymerising the monomer or monomer blend to form polymer beads while suspended in a non-aqueous liquid, recovering polymer beads, and then cleaning the non-aqueous liquid in which the process comprises providing the non-aqueous liquid in a vessel, forming a suspension of monomer beads from the aqueous monomer or monomer blend in the non-aqueous liquid, initiating polymerisation to form polymerising beads, removing a suspension of the polymer beads in non-aqueous liquid from the vessel and recovering, water soluble or water swellable polymer beads from the suspension, in which the non-aqueous liquid contains impurities which comprise particles, and then transferring the non-aqueous liquid from the suspension to a cleaning stage, in which the cleaning stage provides a cleaned non-aqueous liquid suitable for use in a reverse-phase suspension polymerisation process, which cleaning stage comprises removing particles from the non-aqueous liquid in at least one filtration step, in which the filtration step is selected from cross-flow filtration. providing the non-aqueous liquid in a vessel, forming a suspension of monomer beads from the aqueous monomer or monomer blend in the non-aqueous liquid, initiating polymerisation to form polymerising beads, removing a suspension of the polymer beads in non-aqueous liquid from the vessel and recovering, water soluble or water swellable polymer beads from the suspension, in which the non-aqueous liquid contains impurities which comprise particles, and then transferring the non-aqueous liquid from the suspension to a cleaning stage, in which the cleaning stage provides a cleaned non-aqueous liquid suitable for use in a reverse-phase suspension polymerisation process, which cleaning stage comprises removing particles from the non-aqueous liquid in at least one filtration step, in which the filtration step is selected from cross-flow filtration.
Electromagnetic shielding arrangement, comprising an inner ring extending around a middle axis and having an inner surface and an outer surface, an outer ring extending around said middle axis and having an inner surface and an outer surface, which inner ring is located at least partly within said outer ring wherein a spacing is provided between the inner ring and the outer ring, and an electrically conductive body having a bore with an inner surface, wherein said inner ring and/or said outer ring are at least partly located in said bore; wherein a shielding braid of the cable can be mechanically clamped in said spacing between the inner ring and the outer ring such that an electrical contact is provided between said outer ring and said shielding braid, and wherein an electrical contact element is arranged between the outer ring and the electrically conductive body in order to provide an electrical contact between the outer ring and the electrically conductive body, the electrical contact element extends substantially fully around said middle axis, characterized in that the electrical contact element comprises a plurality of resilient contact pieces.
An optical filter material made of doped quartz glass, which for UV operating radiation of a wavelength of 254 nm exhibits a spectral transmission of at least 80% cm -1 and has an edge wavelength λ c in a wavelength range of 230 nm to 250 nm, characterized in that its SiO 2 content is at least 99.9 wt.% and that the edge wavelength λ c is produced by doping with a gallium compound that has a maximum of an absorption band in a wavelength range below 250 mm.
A lorry provided with load-bearing vehicle wheels (2 1 -2 4), a chassis supported by the vehicle wheels, a hydraulic crane carried by the chassis and two or more support legs (4 1 -4 4) connected to the chassis, the respective support leg having a force member by means of which the support leg is manoeuvrable to an active support position in contact with the ground or other underlayer, wherein the crane comprises: - a column, which is rotatable in relation to the chassis about an essentially vertical axis; - a liftable and lowerable crane boom, here denominated inner boom, which is articulately fastened to the column; - a hydraulic cylinder, here denominated lifting cylinder, for lifting and lowering the inner boom in relation to the column; and - an electronic regulating device, which is adapted to check whether one or more predetermined stability conditions for the lorry are fulfilled with a lifting moment of the crane corresponding to a, with respect to the strength of the crane, maximum allowed value ( M C,bas), here denominated base value, for the lifting moment of the crane, the regulating device being adapted to establish a reduced value ( M C, red) for the maximum allowed lifting moment of the crane if said one or more stability conditions are not fulfilled, characterized in that the regulating device, when establishing said reduced value ( M C, red), is adapted to take into account the horizontal extension length of the respective support leg (4 1 -4 4) that is in the active support position, the slewing angle (θ) of the column in relation to the chassis, and the force ( F i) exerted by the force member of the respective support leg that is in the active support position and is not included in the prevailing tipping line of the lorry. - a column, which is rotatable in relation to the chassis about an essentially vertical axis; - a liftable and lowerable crane boom, here denominated inner boom, which is articulately fastened to the column; - a hydraulic cylinder, here denominated lifting cylinder, for lifting and lowering the inner boom in relation to the column; and - an electronic regulating device, which is adapted to check whether one or more predetermined stability conditions for the lorry are fulfilled with a lifting moment of the crane corresponding to a, with respect to the strength of the crane, maximum allowed value ( M C,bas), here denominated base value, for the lifting moment of the crane, the regulating device being adapted to establish a reduced value ( M C, red) for the maximum allowed lifting moment of the crane if said one or more stability conditions are not fulfilled,
An additive manufacturing system, comprising: a build plate; a deposition system operable to dispense material as a melt pool to additively manufacture a workpiece on the build plate; a sensor system operable to determine a temperature at a vertical height on the workpiece between the melt pool and the build plate during additive manufacturing of workpiece, wherein the sensor system comprises a multiple of temperature sensors arranged around the build plate, the temperature sensors configured to identify the temperature of the workpiece at a location trailing the melt pool; a heater system operable to selectively heat the workpiece between the melt pool and the build plate in areas that are subject to high residual stress during the additive manufacturing to provide localized stress relief; and a control in communication with the sensor system and the heater system, the control operable to control the heater system in response to a temperature measured on the workpiece by the sensor system to reduce a temperature gradient of the workpiece between the melt pool and the build plate, characterised in that: at least one of the multiple of temperature sensors is an infrared camera; the heater system comprises a multiple of heaters arranged around the build plate; at least one of the multiple of heaters is a laser; and the multiple of temperature sensors alternate with the multiple of heaters. a build plate; a deposition system operable to dispense material as a melt pool to additively manufacture a workpiece on the build plate; a sensor system operable to determine a temperature at a vertical height on the workpiece between the melt pool and the build plate during additive manufacturing of workpiece, wherein the sensor system comprises a multiple of temperature sensors arranged around the build plate, the temperature sensors configured to identify the temperature of the workpiece at a location trailing the melt pool; a heater system operable to selectively heat the workpiece between the melt pool and the build plate in areas that are subject to high residual stress during the additive manufacturing to provide localized stress relief; and a control in communication with the sensor system and the heater system, the control operable to control the heater system in response to a temperature measured on the workpiece by the sensor system to reduce a temperature gradient of the workpiece between the melt pool and the build plate, characterised in that: at least one of the multiple of temperature sensors is an infrared camera; the heater system comprises a multiple of heaters arranged around the build plate; at least one of the multiple of heaters is a laser; and the multiple of temperature sensors alternate with the multiple of heaters. at least one of the multiple of temperature sensors is an infrared camera; the heater system comprises a multiple of heaters arranged around the build plate; at least one of the multiple of heaters is a laser; and the multiple of temperature sensors alternate with the multiple of heaters.
Use of a feed composition or feed additive comprising at least one antibiotic, and at least one organic molecule substituted at any position with at least one nitrooxy group, or a salt thereof as defined by formula, wherein Y is an organic molecule of the following composition: C a H b O d N e S g, wherein a is comprised between 1 and 25, b is comprised between 2 and 51, d is comprised between 0 and 8, e is comprised between 0 and 5, g is comprised between 0 and 3, for reducing the formation of methane emanating from the digestive activities of ruminants, and/or for improving ruminant performance. a is comprised between 1 and 25, b is comprised between 2 and 51, d is comprised between 0 and 8, e is comprised between 0 and 5, g is comprised between 0 and 3,
A cement testing system comprising: a top module (104,1002); a bottom module (106,1102); casing emulating tubing that couples to the top module (104,1002) and to the bottom module (106,1102) and emulates a wellbore casing; and a plurality of intermediate well-wall emulating modules that couple end-to-end and to the top module (104,1002) and the bottom module (106,1102) to form an annulus around the casing emulating tubing for receiving cement therein, each of the plurality of intermediate well-wall emulating modules configured to emulate one or more different characteristics of a well wall, characterized in that each intermediate well-wall emulating module comprises a plurality of arc modules (108,110) configured with one or more side flanges, one or more end flanges, interlocking side edges, and interlocking end edges wherein the interlocking side edges form a lip/groove along the sides of the arc module which interlock with a groove/lip of another arc module (108,110) to form a well-wall emulating module. a top module (104,1002); a bottom module (106,1102); casing emulating tubing that couples to the top module (104,1002) and to the bottom module (106,1102) and emulates a wellbore casing; and a plurality of intermediate well-wall emulating modules that couple end-to-end and to the top module (104,1002) and the bottom module (106,1102) to form an annulus around the casing emulating tubing for receiving cement therein, each of the plurality of intermediate well-wall emulating modules configured to emulate one or more different characteristics of a well wall, characterized in that each intermediate well-wall emulating module comprises a plurality of arc modules (108,110) configured with one or more side flanges, one or more end flanges, interlocking side edges, and interlocking end edges wherein the interlocking side edges form a lip/groove along the sides of the arc module which interlock with a groove/lip of another arc module (108,110) to form a well-wall emulating module.