mhurhangee/ep-ind-claims huggingface dataset:
A rotor for a centrifuge, especially for a nozzle separator, comprising a bowl and an outlet nozzle assembly, the outlet nozzle assembly consisting of - cylindrical nozzle holder to be mounted into a bore in the bowl of the centrifuge, - a nozzle to be fixed to the nozzle holder and - a wear tube fitted into the nozzle, whereby the wear tube is inserted into the nozzle and the nozzle is mounted from the outside to the nozzle holder, the nozzle has an axis arranged in an acute angle (α) to the normal of the axis of the bore in the bowl, characterized in that the nozzle holder is mounted from the inside of the bowl and is fixed by a fixing screw from the outside of the bowl, an opening for collecting and directing of a suspension to a channel is arranged in the nozzle holder, the channel being connected to the nozzle, whereby the opening to the nozzle is arranged at a distance from the axis of the bore in the bowl. - cylindrical nozzle holder to be mounted into a bore in the bowl of the centrifuge, - a nozzle to be fixed to the nozzle holder and - a wear tube fitted into the nozzle,
A pyrolysis apparatus for reducing feedstock to gaseous energy sources and recyclable solids, comprising: a first processing unit (205, 300, 405); a feedstock transport mechanism (350, 450, 550, 650, 750) extending through said first processing unit (205, 300, 405), said feedstock transport mechanism (350, 450, 550, 650, 750) comprising a multi-pitch auger for moving the feedstock at different rates through said first processing unit (205, 300, 405); a feedstock entry device for moving feedstock from a feedstock source to said feedstock transport mechanism (350, 450, 550, 650, 750); a feedstock restriction device between said feedstock entry device and said feedstock transport mechanism (350, 450, 550, 650, 750) configured to concurrently allow the feedstock to pass therethrough and limit the entry of ambient air into the feedstock moving into said feedstock transport mechanism (350, 450, 550, 650, 750), said feedstock restriction device having an outer perimeter and comprising projections directed inward from the outer perimeter, the projections being configured to define variable lengths within the outer perimeter to compress the feedstock to squeeze out ambient air as the feedstock passes through the feedstock restriction device. a first processing unit (205, 300, 405); a feedstock transport mechanism (350, 450, 550, 650, 750) extending through said first processing unit (205, 300, 405), said feedstock transport mechanism (350, 450, 550, 650, 750) comprising a multi-pitch auger for moving the feedstock at different rates through said first processing unit (205, 300, 405); a feedstock entry device for moving feedstock from a feedstock source to said feedstock transport mechanism (350, 450, 550, 650, 750); a feedstock restriction device between said feedstock entry device and said feedstock transport mechanism (350, 450, 550, 650, 750) configured to concurrently allow the feedstock to pass therethrough and limit the entry of ambient air into the feedstock moving into said feedstock transport mechanism (350, 450, 550, 650, 750), said feedstock restriction device having an outer perimeter and comprising projections directed inward from the outer perimeter, the projections being configured to define variable lengths within the outer perimeter to compress the feedstock to squeeze out ambient air as the feedstock passes through the feedstock restriction device.
A system for accessing massive data in intelligent network service databases, characterized in that the system comprises a service control function entity and a service data function entity, wherein: the SDF entity is configured to provide a plurality of service database servers for storing massive service data of the same intelligent network system; the SCF entity connects with the plurality of service database servers, and the SCF entity is configured to select a specific service database server according to service information of a user and a service key in accordance with a database reset policy when an intelligent network service establishes service data of the user, and to store the service data of the user in the specific service database server; to associate with and locate the specific service database server according to the service information of the user by using a method corresponding to the database reset policy when the user enters and uses the service; and to interact with the specific service database server to accomplish service function. the SDF entity is configured to provide a plurality of service database servers for storing massive service data of the same intelligent network system; the SCF entity connects with the plurality of service database servers, and the SCF entity is configured to select a specific service database server according to service information of a user and a service key in accordance with a database reset policy when an intelligent network service establishes service data of the user, and to store the service data of the user in the specific service database server; to associate with and locate the specific service database server according to the service information of the user by using a method corresponding to the database reset policy when the user enters and uses the service; and to interact with the specific service database server to accomplish service function.
Studded shoe with at least one stud, wherein the at least one stud has an asymmetric shape which is able to provide in use and if the stud is inserted into the ground a resistance against rotary motions of the studded shoe relative to a ground surface, characterized in that the at least one stud is attached to the studded shoe so that the at least one stud is adapted to perform translatory and rotary motions with respect to a first surface determined by a sole.
A method for adaptively managing power for an Energy Harvesting System, EHS,, comprising: measuring a light intensity level available in a surrounding environment of the EHS; wirelessly communicating a first wireless signal from the EHS to a remote device for causing the light intensity level to be increased by remotely turning on a light source or opening a cover preventing light emitted from the light source from reaching an Energy Harvesting Circuit, EHC, when the light intensity level is below a pre-specified level; using the EHC to recharge a rechargeable battery of the EHS when the light intensity level rises to a level above the pre-specified level; and wirelessly communicating a second wireless signal from the EHS to the remote device for causing the light source be turned off or the cover to be closed, when the capacity or State-Of-Charge, SOC, of the rechargeable battery of the EHS reaches a pr-specified value; wherein the light intensity level is measured when it is determined that an available energy in the rechargeable battery is not sufficient to meet an electrical load's energy requirements; or the light intensity level is measured when it is determined that a current date matches a pre-stored date or a current time matches a pre-stored time;or the light intensity level is measured when it is determined that there is a possibility of a storm or energy deficit in a next N hours, days, weeks or months, where N is an integer. measuring a light intensity level available in a surrounding environment of the EHS; wirelessly communicating a first wireless signal from the EHS to a remote device for causing the light intensity level to be increased by remotely turning on a light source or opening a cover preventing light emitted from the light source from reaching an Energy Harvesting Circuit, EHC, when the light intensity level is below a pre-specified level; using the EHC to recharge a rechargeable battery of the EHS when the light intensity level rises to a level above the pre-specified level; and wirelessly communicating a second wireless signal from the EHS to the remote device for causing the light source be turned off or the cover to be closed, when the capacity or State-Of-Charge, SOC, of the rechargeable battery of the EHS reaches a pr-specified value; wherein the light intensity level is measured when it is determined that an available energy in the rechargeable battery is not sufficient to meet an electrical load's energy requirements; or the light intensity level is measured when it is determined that a current date matches a pre-stored date or a current time matches a pre-stored time;or the light intensity level is measured when it is determined that there is a possibility of a storm or energy deficit in a next N hours, days, weeks or months, where N is an integer.
A rotary compressor (10, 110, 120) comprising: a rotary compression mechanism that compresses and discharges a supplied refrigerant; an upper bearing and a lower bearing which are provided so as to sandwich the rotary compression mechanism; a main shaft which is rotatably supported by both the upper bearing and the lower bearing and which extends through the rotary compression mechanism; an electric motor which rotationally drives the main shaft about a center axis of the main shaft; a muffler (50A, 50B) which is affixed to the upper bearing, and into which the refrigerant discharged from the rotary compression mechanism flows; and a hermetic container which internally houses the rotary compression mechanism, the upper bearing, the lower bearing, the main shaft, the electric motor, and the muffler (50A, 50B), characterized in that the upper bearing includes a base portion and a sleeve that stands up vertically from the base portion, a plurality of affixation points are formed between an outer peripheral face of the base portion and an internal peripheral face of the hermetic container, so that the affixation points connect the outer peripheral face of the base portion and the internal peripheral face of the hermetic container, and a stiffening body (56, 57, 58) is provided on at least one of the muffler (50A, 50B) and the upper bearing, the stiffening body (56, 57, 58) extending along a radial line which connects one of the affixation points and the center of the main shaft. a rotary compression mechanism that compresses and discharges a supplied refrigerant; an upper bearing and a lower bearing which are provided so as to sandwich the rotary compression mechanism; a main shaft which is rotatably supported by both the upper bearing and the lower bearing and which extends through the rotary compression mechanism; an electric motor which rotationally drives the main shaft about a center axis of the main shaft; a muffler (50A, 50B) which is affixed to the upper bearing, and into which the refrigerant discharged from the rotary compression mechanism flows; and a hermetic container which internally houses the rotary compression mechanism, the upper bearing, the lower bearing, the main shaft, the electric motor, and the muffler (50A, 50B), characterized in that the upper bearing includes a base portion and a sleeve that stands up vertically from the base portion, a plurality of affixation points are formed between an outer peripheral face of the base portion and an internal peripheral face of the hermetic container, so that the affixation points connect the outer peripheral face of the base portion and the internal peripheral face of the hermetic container, and a stiffening body (56, 57, 58) is provided on at least one of the muffler (50A, 50B) and the upper bearing, the stiffening body (56, 57, 58) extending along a radial line which connects one of the affixation points and the center of the main shaft.
A brake assembly for an elevator, comprising a brake (1, 2), a brake operating device and a first brake wire connected to the brake operating device and to the brake (1, 2), the brake operating device being configured to release the brake (1, 2) by moving the brake operating device and the first brake wire to a first direction, the system comprises a second brake wire connected to the brake operating device and to the brake (1, 2), characterized in that the brake operating device being configured to engage the brake (1, 2) by moving the brake operating device and the second brake wire to a second direction, wherein a pushing movement of the first brake wire is counteracted by a pulling movement of the second brake wire.
Use of sequential copolymers, comprising at least one chain obtained by micellar polymerization within an aqueous dispersing medium, for keeping solid particles (p) in suspension in an aqueous fluid, wherein said chain is soluble in the aqueous fluid, and formed of a series of hydrophilic units interrupted at different points by a plurality of hydrophobic sequences of substantially identical size, wherein the chain is obtained by introducing a surfactant in the aqueous dispersing medium at a concentration above its critical micelle concentration, wherein each of the hydrophobic blocks comprises substantially one and the same defined number n H of hydrophobic monomers, n H being calculated as follows: n H = N agg. MH / surfactant − cmc where: N agg is the aggregation number of the surfactant, which reflects the surfactant number present in each micelle is the molar concentration of hydrophobic monomer in the medium [surfactant] is the molar concentration of surfactant in the medium and cmc is the critical micelle molar concentration, and wherein the content of hydrophobic monomers corresponding to the ratio of the weight of the hydrophobic monomers with respect to the total weight of the hydrophobic and hydrophilic monomers is greater than or equal to 0.05% and less than or equal to 5%. N agg is the aggregation number of the surfactant, which reflects the surfactant number present in each micelle is the molar concentration of hydrophobic monomer in the medium [surfactant] is the molar concentration of surfactant in the medium and cmc is the critical micelle molar concentration, and wherein the content of hydrophobic monomers corresponding to the ratio of the weight of the hydrophobic monomers with respect to the total weight of the hydrophobic and hydrophilic monomers is greater than or equal to 0.05% and less than or equal to 5%.
A device for cleaning of crankcase gases from a combustion engine, comprising an inlet conduit, which is adapted to be connected to a crankcase of the combustion engine, a centrifugal separator, which is adapted to receive a flow of crankcase gases from the crankcase via the inlet conduit and which comprises a rotable centrifuge rotor for centrifuging the crankcase gases, and an outlet conduit, which is adapted to discharge clean crankcase gases from the centrifugal separator, characterized in that the device comprises an export conduit, which is connected to the inlet conduit and adapted to enable discharge of a flow of crankcase gases from the crankcase by-passing the centrifugal separator depending on the gas pressure in the crankcase in order to prevent the gas pressure in the crankcase to exceed a too high unallowable level, and an import conduit, which is connected to the inlet conduit and adapted to enable feeding of a flow of air from the surroundings to the centrifugal separator depending on the gas pressure in the inlet conduit in order to prevent the gas pressure in the crankcase to come below a too low unallowable level.
DC overcurrent protection device, comprising an ignition current-controlled irreversible high-current deactivation element, an overcurrent detection unit that is connected electrically in series, in a high-current path, with the ignition current-controlled irreversible high-current deactivation element, and control contacts (11A, 11B) for controlling the ignition current-controlled irreversible high-current deactivation element that are arranged so as to be able to be electrically connected to one another, wherein the overcurrent detection unit is designed such that, when an overcurrent with a value equal to or greater than a predetermined current value flows in the high-current path, the control contacts (11A, 11B) are electrically connected to one another, due to an electromagnetic force brought about by the overcurrent, such that an ignition current is transmitted to the ignition current-controlled irreversible high-current deactivation element, such that the ignition current-controlled irreversible high-current deactivation element is controlled into a deactivated state, characterized in that the overcurrent detection unit comprises a holding element that is arranged between a wall section of the overcurrent detection unit and a bracket that channels a high current and is able to be moved in relation to the wall section and to which a first control contact is fastened, wherein the bracket is held in the direction of the wall section by a holding force of the holding element such that a flow of current in the high-current path is channelled through the bracket and the bracket forms part of the high-current path by virtue of ends of the bracket forming high-current contacts with sections (4A, 4B) of that part of the high-current path not formed by the bracket, and the overcurrent detection unit is designed such that, when the overcurrent flows in the high-current path, the bracket moves counter to the holding force of the holding element such that the high-current contacts move away from the sections (4A, 4B) of the high-current path and a light arc forms at each of the high-current contacts, and that the first control contact makes contact with a second control contact that is positionally fixed with respect to the wall section, as a result of which the first control contact is short-circuited with the second control contact such that the ignition current is transmitted to the ignition current-controlled irreversible high-current deactivation element by an energy source connected to the second control contact.
A cleaning solution for cleaning a copper-containing microelectronic substrate, the cleaning solution consisting of: from 1.5 wt % to 12.5 wt % of a concentrate consisting of 1.8 wt% to 12.4 wt % of a quaternary ammonium hydroxide selected from the group consisting of tetraalkylammonium hydroxide wherein the alkyl contains one of C 1 through C 10 atoms or combinations of C 1 through C 10 atoms, 2.0 wt % to 27.8 wt % of a polar organic amine selected from the group consisting of monoethanolamine, aminoethylethanolamine, N-methylaminoethanol, aminoethoxyethanol, diethanolamine, triethanolamine, C 2 -C 5 alkanolamines, and mixtures thereof; up to 4 wt% of gallic acid; 1.0 wt% to 10.9 wt% corrosion inhibitor selected from the group consisting of ascorbic acid (Vitamin C), L(+)-ascorbic acid, isoascorbic acid, ascorbic acid derivatives, citric acid, catechol, pyrogallol, resorcinol, hydroquinone, benzotriazole, ethylenediamine tetraacetic acid, and combinations thereof, balance water; and, 87.5 wt % to 98.5 wt % deionized water, wherein the alkalinity of the solution is greater than 0.073 milliequivalents base per gram of solution. 1.8 wt% to 12.4 wt % of a quaternary ammonium hydroxide selected from the group consisting of tetraalkylammonium hydroxide wherein the alkyl contains one of C 1 through C 10 atoms or combinations of C 1 through C 10 atoms, 2.0 wt % to 27.8 wt % of a polar organic amine selected from the group consisting of monoethanolamine, aminoethylethanolamine, N-methylaminoethanol, aminoethoxyethanol, diethanolamine, triethanolamine, C 2 -C 5 alkanolamines, and mixtures thereof; up to 4 wt% of gallic acid; 1.0 wt% to 10.9 wt% corrosion inhibitor selected from the group consisting of ascorbic acid (Vitamin C), L(+)-ascorbic acid, isoascorbic acid, ascorbic acid derivatives, citric acid, catechol, pyrogallol, resorcinol, hydroquinone, benzotriazole, ethylenediamine tetraacetic acid, and combinations thereof,
Retracting device, in particular for drawers, sliding doors, hinged doors, etc., having a coupling piece which is subjectable to a spring and is displaceable between a retracted position and an extended position, characterized in that a sliding-out arrangement is indirectly or directly couplable with the coupling piece, and in that a sliding piece of the sliding-out arrangement is displaceable on actuation of the sliding-out arrangement.
A method for performing a quality analysis of an RF coil of a magnetic resonance imaging device, wherein in an operational mode the RF coil is configured to acquire MR signals from an object to be observed, comprising in a test mode: - emitting a test signal by an RF transmitter, - receiving directly, i.e. without detecting a response signal emitted by an MR phantom or the object to be observed, the test signal from the RF transmitter by the RF coil, wherein the RF coil provides an output signal, and - providing a performance indicator by analysing the output signal of the RF coil for performing the quality analysis, characterized in that during the receiving of the test signal a status of the magnetic resonance imaging device is modified - by tuning and/or detuning the RF coil and/or - by activating an amplifier and/or gradient coils of the medical resonance imaging device. - emitting a test signal by an RF transmitter, - receiving directly, i.e. without detecting a response signal emitted by an MR phantom or the object to be observed, the test signal from the RF transmitter by the RF coil, wherein the RF coil provides an output signal, and - providing a performance indicator by analysing the output signal of the RF coil for performing the quality analysis, characterized in that during the receiving of the test signal a status of the magnetic resonance imaging device is modified - by tuning and/or detuning the RF coil and/or - by activating an amplifier and/or gradient coils of the medical resonance imaging device.
A method comprising, by a computing system: generating, by a plurality of sensors, a first set of ice thickness values corresponding to a first time, by measuring the thickness of ice with each of the plurality of sensors at a position along a surface of an airfoil; determining, based on a measured flight data, a first plurality of lift calculation variables; generating, based on at least the first set of ice thickness values and the first plurality of lift calculation variables, a threshold angle of attack value, the threshold value comprising a maximum angle of attack at which the airfoil will not stall; generating a second set of ice thickness values and a second plurality of lift calculation variables corresponding to a second time (214, 220); updating at the second time, based on one or more differences between the first and second sets of ice thickness values and the first and second plurality of lift calculation variables, the threshold angle of attack value; and sending, to a display, based on the updated threshold angle of attack, one or more changes to the flight data to adjust an actual angle of attack of the airfoil. generating, by a plurality of sensors, a first set of ice thickness values corresponding to a first time, by measuring the thickness of ice with each of the plurality of sensors at a position along a surface of an airfoil; determining, based on a measured flight data, a first plurality of lift calculation variables; generating, based on at least the first set of ice thickness values and the first plurality of lift calculation variables, a threshold angle of attack value, the threshold value comprising a maximum angle of attack at which the airfoil will not stall; generating a second set of ice thickness values and a second plurality of lift calculation variables corresponding to a second time (214, 220); updating at the second time, based on one or more differences between the first and second sets of ice thickness values and the first and second plurality of lift calculation variables, the threshold angle of attack value; and sending, to a display, based on the updated threshold angle of attack, one or more changes to the flight data to adjust an actual angle of attack of the airfoil.