mhurhangee/ep-ind-claims huggingface dataset:
A assembly for mounting a vehicle roof-box on a vehicle roof panel, the assembly comprising: a plurality of cross-bars (10, 12, 14) spacedly arranged in the front-rear direction, wherein each cross-bar has two opposing ends adapted to be removably coupled to the roof rails respectively, wherein the cross-bars (10, 12, 14) are adapted to mount the vehicle roof-box; and a plurality of securing means configured to removably secure the cross-bars (10, 12, 14) to the roof rails, wherein each of the plurality of securing means includes a first bracket movable along each of the roof rails, and a second bracket removably coupled to the first bracket to secure the first bracket to each of the roof rails, characterized in that the cross-bars (10, 12, 14) are adapted to tightly-contact the vehicle roof panel, wherein each of the cross-bars (10, 12, 14) has a fixing plate at each end of the bar, wherein the fixing plate face-contacts and is fixed to the second bracket, and an end of each of the cross-bars (10, 12, 14) is fixed to the second bracket through the fixing plate, and wherein one of the first and second brackets (8a, 8b) has a groove and the other of the first and second brackets (8a, 8b) has a protrusion engaged with the groove. a plurality of cross-bars (10, 12, 14) spacedly arranged in the front-rear direction, wherein each cross-bar has two opposing ends adapted to be removably coupled to the roof rails respectively, wherein the cross-bars (10, 12, 14) are adapted to mount the vehicle roof-box; and a plurality of securing means configured to removably secure the cross-bars (10, 12, 14) to the roof rails, wherein each of the plurality of securing means includes a first bracket movable along each of the roof rails, and a second bracket removably coupled to the first bracket to secure the first bracket to each of the roof rails, characterized in that the cross-bars (10, 12, 14) are adapted to tightly-contact the vehicle roof panel, wherein each of the cross-bars (10, 12, 14) has a fixing plate at each end of the bar, wherein the fixing plate face-contacts and is fixed to the second bracket, and an end of each of the cross-bars (10, 12, 14) is fixed to the second bracket through the fixing plate, and wherein one of the first and second brackets (8a, 8b) has a groove and the other of the first and second brackets (8a, 8b) has a protrusion engaged with the groove.
A micro device transfer head comprising: a base substrate; a spring member including: multiple spring anchors (120A-D) coupled to the base substrate; and a spring portion, the spring portion comprising a spring platform, the spring platform comprising a mesa structure thereon protruding away from the base substrate and an electrode (116A,116B) on the top surface of said mesa structure 104), wherein the spring portion further includes multiple spring arms (124A-D), wherein each spring arm (124A-D) extends from a corresponding corner of the spring platform and runs parallel to an edge of the spring platform before attaching to a corresponding spring anchor (120A-D), wherein the spring platform is deflectable into a space between the spring portion and the base substrate; a dielectric layer covering a top surface of the electrode (116A, 116B); and an electrode lead (114A, 114B) extending from the electrode (116A, 116B) and connected to an interconnect in the base substrate to connect the micro device transfer head to electronics of an electrostatic gripper assembly for applying a voltage to the electrode to create an electrostatic pick-up force. a base substrate; a spring member including: multiple spring anchors (120A-D) coupled to the base substrate; and a spring portion, the spring portion comprising a spring platform, the spring platform comprising a mesa structure thereon protruding away from the base substrate and an electrode (116A,116B) on the top surface of said mesa structure 104), wherein the spring portion further includes multiple spring arms (124A-D), wherein each spring arm (124A-D) extends from a corresponding corner of the spring platform and runs parallel to an edge of the spring platform before attaching to a corresponding spring anchor (120A-D), wherein the spring platform is deflectable into a space between the spring portion and the base substrate; a dielectric layer covering a top surface of the electrode (116A, 116B); and an electrode lead (114A, 114B) extending from the electrode (116A, 116B) and connected to an interconnect in the base substrate to connect the micro device transfer head to electronics of an electrostatic gripper assembly for applying a voltage to the electrode to create an electrostatic pick-up force.
A method of operating a polyolefin manufacturing system, comprising: polymerizing olefin in a first loop slurry reactor having a first reactor pump to form a first polyolefin; transferring the first polyolefin to a second loop slurry reactor having a second reactor pump, wherein the transfer of the first polyolefin from the first loop slurry reactor to the second loop slurry reactor is a continuous discharge and wherein the continuous discharge is controlled by a pressure drop from the first reactor pump to the second reactor pump; polymerizing olefin in the second loop slurry reactor to form a second polyolefin; discharging a product polyolefin from the second loop slurry reactor, the product polyolefin comprising the first polyolefin and the second polyolefin; and operating the first loop slurry reactor with a first reactor pressure relief system and the second loop slurry reactor with a second reactor pressure relief system, both pressure relief systems configured to discharge to a flare system; wherein the polyolefin manufacturing system comprises a relief instrumented system configured to direct at least one process interlock that mitigates an excess reaction scenario of the first loop slurry reactor or the second loop slurry reactor, or both, as an overpressure relief scenario. polymerizing olefin in a first loop slurry reactor having a first reactor pump to form a first polyolefin; transferring the first polyolefin to a second loop slurry reactor having a second reactor pump, wherein the transfer of the first polyolefin from the first loop slurry reactor to the second loop slurry reactor is a continuous discharge and wherein the continuous discharge is controlled by a pressure drop from the first reactor pump to the second reactor pump; polymerizing olefin in the second loop slurry reactor to form a second polyolefin; discharging a product polyolefin from the second loop slurry reactor, the product polyolefin comprising the first polyolefin and the second polyolefin; and operating the first loop slurry reactor with a first reactor pressure relief system and the second loop slurry reactor with a second reactor pressure relief system, both pressure relief systems configured to discharge to a flare system; wherein the polyolefin manufacturing system comprises a relief instrumented system configured to direct at least one process interlock that mitigates an excess reaction scenario of the first loop slurry reactor or the second loop slurry reactor, or both, as an overpressure relief scenario.
Access arrangement for a vehicle having the following features: - a vehicle-side unlocking device (DCS, DL) for actuating a lock mechanism; - a vehicle-side chargeable electrical energy storage device configured to supply the unlocking device (DCS, DL) with energy; - a vehicle-side charged electrical energy storage device configured to charge the vehicle-side chargeable electrical energy storage device; - a charging control device (CST, CCI) for controlling the process of charging the vehicle-side chargeable electrical energy storage device by the vehicle-side charged electrical energy storage device, characterized by a vehicle-side authentication device for checking an access authorization and for controlling the charging control device (CST, CCI) depending on the check of the access authorization. - a vehicle-side unlocking device (DCS, DL) for actuating a lock mechanism; - a vehicle-side chargeable electrical energy storage device configured to supply the unlocking device (DCS, DL) with energy; - a vehicle-side charged electrical energy storage device configured to charge the vehicle-side chargeable electrical energy storage device; - a charging control device (CST, CCI) for controlling the process of charging the vehicle-side chargeable electrical energy storage device by the vehicle-side charged electrical energy storage device, characterized by a vehicle-side authentication device for checking an access authorization and for controlling the charging control device (CST, CCI) depending on the check of the access authorization.
A method for the plasma treatment of workpieces wherein the workpiece is inserted into a chamber of a treatment station, wherein said chamber can be evacuated at least in part, and wherein at least a part of the treatment station can be moved in relation to at least another part to support a handling of the workpieces, characterised in that a sleeve-type outer chamber wall is movable and positioned in relation to a chamber bottom as well as in relation to a chamber cover, that a workpiece that is made of thermoplastic hard resin is treated and that a beverage bottle is treated as workpiece, that the positioning is carried out in a vertical direction and that the chamber bottom and the chamber cover are left in a static position in relation to a station frame of the plasma station, and that the chamber wall is sealed in relation to the chamber cover.
A method for manufacturing a copper foil (100; 200) comprising: polishing a surface of the rotary electrode drum with a brush having a grit of #800 to #3000; applying a current density of 40 to 80 A/dm 2 to an electrode plate and a rotary electrode drum spaced from each other in an electrolyte containing copper ions to form a copper layer; and forming an anticorrosive layer (210; 220) on the copper layer, wherein the electrolyte comprises: 70 to 90 g/L of copper ions; 50 to 150 g/L of sulfuric acid; 2 to 20 mg/L of 1-phenyl-5-mercapto-1H-tetrazole; 2 to 20 mg/L of polyethylene glycol; and 50 mg/L or less of silver (Ag). polishing a surface of the rotary electrode drum with a brush having a grit of #800 to #3000; applying a current density of 40 to 80 A/dm 2 to an electrode plate and a rotary electrode drum spaced from each other in an electrolyte containing copper ions to form a copper layer; and forming an anticorrosive layer (210; 220) on the copper layer, wherein the electrolyte comprises: 70 to 90 g/L of copper ions; 50 to 150 g/L of sulfuric acid; 2 to 20 mg/L of 1-phenyl-5-mercapto-1H-tetrazole; 2 to 20 mg/L of polyethylene glycol; and 50 mg/L or less of silver (Ag). 70 to 90 g/L of copper ions; 50 to 150 g/L of sulfuric acid; 2 to 20 mg/L of 1-phenyl-5-mercapto-1H-tetrazole; 2 to 20 mg/L of polyethylene glycol; and 50 mg/L or less of silver (Ag).
A power supply device comprising: a power conversion unit that includes two or more first semiconductor switching devices (8a, 8b) and performs a converter operation configured to convert an AC power to a DC power or an inverter operation configured to convert a DC power to an AC power; a heating resistor configured to heat the first semiconductor switching devices (8a, 8b); a second semiconductor switching device configured to control conduction of the heating resistor; a temperature detection unit configured to detect an outside air temperature of a place where the power supply device is installed; and a control unit configured to generate a drive signal for controlling ON and OFF of the first semiconductor switching devices (8a, 8b) and the second semiconductor switching device by using a temperature detected by the temperature detection unit, wherein the control unit is configured to generate, when the outside air temperature is equal to or lower than a first threshold temperature set in advance, a drive signal for setting the second semiconductor switching device to an ON state, and thereafter, after a preset predetermined time has passed, the control unit is configured to generate a drive signal for setting the second semiconductor switching device to an OFF state and is configured to start an interleaving operation of the first semiconductor switching devices (8a, 8b). a power conversion unit that includes two or more first semiconductor switching devices (8a, 8b) and performs a converter operation configured to convert an AC power to a DC power or an inverter operation configured to convert a DC power to an AC power; a heating resistor configured to heat the first semiconductor switching devices (8a, 8b); a second semiconductor switching device configured to control conduction of the heating resistor; a temperature detection unit configured to detect an outside air temperature of a place where the power supply device is installed; and a control unit configured to generate a drive signal for controlling ON and OFF of the first semiconductor switching devices (8a, 8b) and the second semiconductor switching device by using a temperature detected by the temperature detection unit, wherein the control unit is configured to generate, when the outside air temperature is equal to or lower than a first threshold temperature set in advance, a drive signal for setting the second semiconductor switching device to an ON state, and thereafter, after a preset predetermined time has passed, the control unit is configured to generate a drive signal for setting the second semiconductor switching device to an OFF state and is configured to start an interleaving operation of the first semiconductor switching devices (8a, 8b).
A wireless power transfer system in which a primary coil connected to a high-frequency power source and a secondary coil connected to a load are disposed so as to be isolated from each other with a coupling coefficient k, thereby supplying power from the primary coil to the secondary coil in a non-contact manner, the system comprising: a resonance current phase detection means of a resonance circuit with a resonance capacitor connected to the secondary coil, the resonance current phase detection means configured to detect, from the primary coil, phase information of a resonance current flowing in the resonance circuit and correct the detected phase information so that a phase of the detected phase information is advanced; a phase information transfer means configured to transfer the corrected phase information; and a driving circuit configured to determine, based on the transferred phase information, a driving frequency so that a current phase of a driving current flowing in the primary coil slightly delays from a voltage phase of a driving voltage applied to the primary coil, thereby driving the primary coil, characterised in that, the Q value, determined based on a leakage inductance of the secondary coil, a capacitance of the resonance capacitor, and an equivalent load resistance on the secondary coil side, is set to a value greater than or equal to a value determined by Q=2/k 2. a resonance current phase detection means of a resonance circuit with a resonance capacitor connected to the secondary coil, the resonance current phase detection means configured to detect, from the primary coil, phase information of a resonance current flowing in the resonance circuit and correct the detected phase information so that a phase of the detected phase information is advanced; a phase information transfer means configured to transfer the corrected phase information; and a driving circuit configured to determine, based on the transferred phase information, a driving frequency so that a current phase of a driving current flowing in the primary coil slightly delays from a voltage phase of a driving voltage applied to the primary coil, thereby driving the primary coil, characterised in that, the Q value, determined based on a leakage inductance of the secondary coil, a capacitance of the resonance capacitor, and an equivalent load resistance on the secondary coil side, is set to a value greater than or equal to a value determined by Q=2/k 2.
A method for producing a continuous web of fibers comprising long natural fibers, at least part of the long fibers of the web having a length greater than 20 cm, in particular 50 cm, the method comprising the following steps: - bringing a plurality of disjointed ribbons of fibers into parallel, at least one ribbon containing long natural fibers; - dispersing the adjacent ribbons through a field of tips including a plurality of rows of parallel and transverse tips relative to an axis B-B' of travel of the ribbons, to form a strip of parallel fibers; - tensioning and stretching the strip in the field of tips parallel to the axis of travel (B-B'); and - binding the fibers of the stretched strip to form the web, the step for binding the fibers of the strip including sprinkling the stretched strip with an aqueous solution, impregnating the aqueous solution between the fibers of the strip and drying the strip to form the web, the surface density of the web, after the step for binding the fibers, being less than 500 g/m 2, advantageously less than 150 g/m 2. - bringing a plurality of disjointed ribbons of fibers into parallel, at least one ribbon containing long natural fibers; - dispersing the adjacent ribbons through a field of tips including a plurality of rows of parallel and transverse tips relative to an axis B-B' of travel of the ribbons, to form a strip of parallel fibers; - tensioning and stretching the strip in the field of tips parallel to the axis of travel (B-B'); and - binding the fibers of the stretched strip to form the web,
A method of encoding and transmitting data at a transmitting end in a wireless communication system, the method comprising: attaching an error detection code to a control information to form the data; encoding the control information by using a first block encoder which encodes data of a first size to generate an encoded control information; encoding the error detection code by using a second block encoder which encodes data of a second size to generate an encoded error detection code; and transmitting encoded data including the encoded control information and the encoded error detection code to a receiving end, wherein the first size is different from the second size. attaching an error detection code to a control information to form the data; encoding the control information by using a first block encoder which encodes data of a first size to generate an encoded control information; encoding the error detection code by using a second block encoder which encodes data of a second size to generate an encoded error detection code; and transmitting encoded data including the encoded control information and the encoded error detection code to a receiving end, wherein the first size is different from the second size.
A live virus composition comprising a herpes simplex virus, a protein, at least one sugar, sodium chloride, and sodium phosphate, wherein the composition is at pH 7.4, wherein the composition is frozen, the protein is partially hydrolyzed gelatin at a concentration of 0.5% (w/v), and the at least one sugar is sorbitol at a concentration of 2% (w/v). wherein the composition is frozen, the protein is partially hydrolyzed gelatin at a concentration of 0.5% (w/v), and the at least one sugar is sorbitol at a concentration of 2% (w/v).
A composition comprising Terminalia bellerica extract for use in the treatment or prevention of a free radical-induced disease by inhibiting xanthine oxidase activity in an individual, wherein the Terminalia bellerica extract composition comprises not less than 2% by weight of chebulinic acid based on the total weight of the extract, not less than 2% by weight of chebulagic acid based on the total weight of the extract, and not less than 10% by weight other low molecular weight hydrolyzable tannoids based on the total weight of the extract and wherein the free radical-induced disease is selected from the group consisting of gout, uricemia, and hyperuricemia.
A power adaptation apparatus for a wireless communication channel, comprising: a power ratio compensator, capable of receiving a channel quality indicator and compensating a power ratio parameter according to the channel quality indicator, and a channel quality estimator, capable of estimating channel quality of the wireless communication channel and accordingly generating the channel quality indicator to the power ratio compensator; wherein the power ratio parameter is referenced for setting the power of the wireless communication channel and the power ratio parameter defines a ratio between a gain factor of the wireless communication channel and a gain factor of another wireless communication channel; wherein the wireless communication channel is an enhanced dedicated channel, E-DCH, of a high speed uplink packet access; characterized in that the channel quality estimator is capable of generating the channel quality indicator by counting a number of acknowledgement indicators and a number of negative acknowledgement indicators received from an E-DCH hybrid automatic repeat request indicator channel, E-HICH, during a specific number of transmission time intervals of the E-HICH, wherein the E-HICH is used to carry an acknowledgement indicator or a negative acknowledgement indicator for each data delivery via the E-DCH. a power ratio compensator, capable of receiving a channel quality indicator and compensating a power ratio parameter according to the channel quality indicator, and a channel quality estimator, capable of estimating channel quality of the wireless communication channel and accordingly generating the channel quality indicator to the power ratio compensator; wherein the power ratio parameter is referenced for setting the power of the wireless communication channel and the power ratio parameter defines a ratio between a gain factor of the wireless communication channel and a gain factor of another wireless communication channel; wherein the wireless communication channel is an enhanced dedicated channel, E-DCH, of a high speed uplink packet access; characterized in that the channel quality estimator is capable of generating the channel quality indicator by counting a number of acknowledgement indicators and a number of negative acknowledgement indicators received from an E-DCH hybrid automatic repeat request indicator channel, E-HICH, during a specific number of transmission time intervals of the E-HICH, wherein the E-HICH is used to carry an acknowledgement indicator or a negative acknowledgement indicator for each data delivery via the E-DCH.
A method of manufacturing a fabric reinforcement which is of particular value in reinforcing endless belts, wherein at least two layers of fabric material are embedded in the fabric reinforcement and wherein the fabric reinforcement exhibits improved peel adhesion characteristics, said process comprising the steps of impregnating a fabric material with a bonding agent in a plastisol to form coated fabric material, applying a plastisol layer between two or more layers of coated fabric thereby creating a belt carcass, continuously feeding the belt carcass into a double belt press which presses the impregnated fabric materials together with the plastisol layer(s) at a pressure of at least 34,500 Pa (5 psi) to produce a preformed fabric carcass while heating the preformed fabric carcass to a temperature which is within the range of 182°C to 232°C for a period of at least 6 minutes, continuously withdrawing the fabric carcass from the double belt press.