mhurhangee/ep-ind-claims huggingface dataset:
A personal consumer product, comprising: a. a power source; b. a first control unit comprising a plurality of ports; c. an energy emitting element in selective electrical communication with the power source; d. a plurality of sensors (350,360) positioned to sense a temperature of the energy emitting element, each of the plurality of sensors in electrical communication with a respective port of the first control unit; and e. a plurality of switching elements (372,382), each of the switching elements switchable between a conducting state and a non-conducting state to electrically isolate the energy emitting element from the power source; f. wherein the first control unit is to execute a diagnostics routine, the diagnostics routine comprising one or more of: i. testing the switching function of each of the plurality of switching elements between the conducting state and the non-conducting state; and ii. testing the temperature sensing function of each of the plurality of sensors; wherein testing the switching function of each of the plurality of switching elements between the conducting state and the non-conducting state and testing the temperature sensing function of each of the plurality of sensors comprises pulling at least one of the plurality of ports to a control unit high voltage and measuring a voltage at another of the at least one of the plurality of ports. a. a power source; b. a first control unit comprising a plurality of ports; c. an energy emitting element in selective electrical communication with the power source; d. a plurality of sensors (350,360) positioned to sense a temperature of the energy emitting element, each of the plurality of sensors in electrical communication with a respective port of the first control unit; and e. a plurality of switching elements (372,382), each of the switching elements switchable between a conducting state and a non-conducting state to electrically isolate the energy emitting element from the power source; f. wherein the first control unit is to execute a diagnostics routine, the diagnostics routine comprising one or more of: i. testing the switching function of each of the plurality of switching elements between the conducting state and the non-conducting state; and ii. testing the temperature sensing function of each of the plurality of sensors; i. testing the switching function of each of the plurality of switching elements between the conducting state and the non-conducting state; and ii. testing the temperature sensing function of each of the plurality of sensors;
Method for actuating an operator control apparatus for a motor vehicle, comprising an operator control element, wherein a spring-elastic element, which is arranged beneath the operator control element, is indirectly or directly moved and/or deformed by a piezo element in order to provide at least one item of haptic feedback to an operator during operation of the operator control element, characterized in that the spring-elastic element, when the piezo element is actuated, is moved in the direction of the operator control element and is brought into operative contact with the said operator control element in such a way that the spring-elastic element is moved from a stable starting position to an unstable deformation position when the operator control element is operated and the spring-elastic element automatically returns from the deformation position back to the starting position when the operator control element is released, wherein an item of haptic feedback is generated by the spring-elastic element each time a changeover is made from the starting position to the deformation position, and vice versa.
A method of forming through-substrate vias, comprising: forming through-substrate via openings 20 into a substrate 12 from a first side of the substrate 16; lining sidewalls of the through-substrate via openings 20 with dielectric 22; lining conductive seed material 24 laterally over the dielectric 22 within the through-substrate via openings 20; separately electrodepositing copper 26 and at least one element 28 other than copper to fill remaining volume 27 of the through-substrate via openings 20 formed within the substrate; annealing the electrodeposited copper 26 and the at least one other element 28 to form an alloy 30 of the copper and the at least one other element, and forming conductive through-substrate via structures 32 comprising the alloy 30; and removing substrate material 12 from a second side 18 of the substrate opposite the first side to expose and project conductive through-substrate via structures 32 comprising the alloy 30 and the dielectric 22 from the second side of the substrate. forming through-substrate via openings 20 into a substrate 12 from a first side of the substrate 16; lining sidewalls of the through-substrate via openings 20 with dielectric 22; lining conductive seed material 24 laterally over the dielectric 22 within the through-substrate via openings 20; separately electrodepositing copper 26 and at least one element 28 other than copper to fill remaining volume 27 of the through-substrate via openings 20 formed within the substrate; annealing the electrodeposited copper 26 and the at least one other element 28 to form an alloy 30 of the copper and the at least one other element, and forming conductive through-substrate via structures 32 comprising the alloy 30; and removing substrate material 12 from a second side 18 of the substrate opposite the first side to expose and project conductive through-substrate via structures 32 comprising the alloy 30 and the dielectric 22 from the second side of the substrate.
Method for conditioning a biodegradable waste water stream through three series-connected chambers (6, 7, 8), wherein the waste water stream flows into a first chamber designated as contactor, is passed from there into a second chamber designated as captor and then is supplied to a third chamber designated as reactor and which is in free liquid communication with the captor and is operated cyclically in an aeration phase, a sedimentation phase and clear water discharge, and waste water together with activated sludge is conveyed from the reactor in the form of recirculation to the contactor and waste water is supplied continuously to the contactor and experiences uninterrupted atmospheric oxygen supply in the contactor by means of an aeration system, characterised in that the aeration system regulates an atmospheric oxygen supply to the reactor as a function of a respiration rate of the waste water in the captor, which is determined in the same cycle via the change in oxygen content of the waste water over time in the captor, wherein the water level in the contactor is kept constant by means of an overflow edge between the contactor and the captor and the waste water is passed over this overflow edge in a constant outflow from the contactor to the captor.
A damping unit for damping a movable element of a home appliance comprising at least two dampers positioned in a housing, wherein the dampers are positioned side-by-side to guarantee a defined series of damping the energy of the movable element, characterized in that the damping unit has an individual piston for each of the dampers located between the damper and the movable element for contacting the movable element, wherein the damping unit has a guide on at least one of the piston and the housing and a slider on at least one of the piston and the housing being slidable in the corresponding guide to guide the piston, characterised in that the slider is limited in the guide to move only along a line substantially parallel to a damping direction and rotation of the piston around its own central axis is avoided, and wherein there is a distance between center lines of the pistons along a line substantially vertical to the damping direction.
Method for determining the presence of undissolved gas in a hydraulic system comprising a main circuit with a primary reservoir containing a medium, and a by pass circuit connected to the main circuit and having a threshold pressure valve which opens at a threshold pressure, wherein the method comprises the steps of: A. connecting a testing apparatus comprising a secondary reservoir of the medium and a pump to the main circuit, B. completely filling the primary reservoir, C. after the primary reservoir has completely been filled, pumping the medium from the secondary reservoir into the main circuit to increase the pressure of the medium until a pressure equal to or larger than the threshold pressure is reached in the by pass circuit so that the threshold pressure valve opens, D. continuing the pumping of the medium such that the threshold pressure valve remains open and continuing said pumping until a substantially constant flow rate of the medium pumped from the secondary reservoir into the main circuit is reached, E. over time measuring the flow rate of the medium pumped from the secondary reservoir into the main circuit, and F. determining the presence of undissolved gas on basis of the measured flow rate. A. connecting a testing apparatus comprising a secondary reservoir of the medium and a pump to the main circuit, B. completely filling the primary reservoir, C. after the primary reservoir has completely been filled, pumping the medium from the secondary reservoir into the main circuit to increase the pressure of the medium until a pressure equal to or larger than the threshold pressure is reached in the by pass circuit so that the threshold pressure valve opens, D. continuing the pumping of the medium such that the threshold pressure valve remains open and continuing said pumping until a substantially constant flow rate of the medium pumped from the secondary reservoir into the main circuit is reached, E. over time measuring the flow rate of the medium pumped from the secondary reservoir into the main circuit, and F. determining the presence of undissolved gas on basis of the measured flow rate.
Filter unit for a suction device, by means of which a gaseous medium is filtered, with a filter housing which comprises a transfer tube having an admittance room in which a first filter element is held, and an input part which adjoins the transfer tube on the input side and to which an input line is connected or connectable on the outer side facing away from the admittance room, through which transfer tube the gaseous medium is introducible into the admittance room, wherein the first filter element is connected within the admittance room by an adhesive to the transfer tube in such a way that the space between the first filter element and the interior side of the transfer tube is sealed and a diffusion space is kept free between the inserted first filter element and the input part, characterised in in that the filter housing comprises an output part which adjoins the transfer tube on the output side, which output part is of cover-shaped design and which is connected to the transfer tube detachably, in one piece, form-fittingly or non-form-fittingly, optionally by means of threaded elements or latching elements; and that the output part comprises laterally one or more outlet openings and wholly or partially encloses a second filter element which is provided to fulfil a sound attenuation function. in that the filter housing comprises an output part which adjoins the transfer tube on the output side, which output part is of cover-shaped design and which is connected to the transfer tube detachably, in one piece, form-fittingly or non-form-fittingly, optionally by means of threaded elements or latching elements; and that the output part comprises laterally one or more outlet openings and wholly or partially encloses a second filter element which is provided to fulfil a sound attenuation function.
A continuous flow micro-total process for the preparation of celecoxib and analogs thereof of Formula I, wherein 'R' is a substituted phenyl or heterocyclic group substituted with one or more substituents selected from the group consisting of: halogen, hydroxy, alkoxy, aldehyde, carboxylic acid, nitro, alkyl, amino, thiol and ester; comprising: (i) introducing a solution of reactants of Formula 1 and Formula 2 in a protic solvent and water to a micro-reactor (ii) maintaining the reaction mixture of step (i) in the micro-reactor for 10-30 minutes at a temperature of 80-130 °C and at a pressure of 25-35 bar for the synthesis of compounds of Formula I; (iii) introducing a basifying agent and an extraction solvent to reaction mixture of step (ii) to form organic-aqueous droplets; (iv) separating the organic and aqueous segments by passing through organic-aqueous droplets of step (iii) to micro-separator, in presence of a suitable extraction solvent system; (v) removing organic solvents to obtain compound of Formula I; and (vi) optionally, purifying compound of Formula I. (i) introducing a solution of reactants of Formula 1 and Formula 2 in a protic solvent and water to a micro-reactor (ii) maintaining the reaction mixture of step (i) in the micro-reactor for 10-30 minutes at a temperature of 80-130 °C and at a pressure of 25-35 bar for the synthesis of compounds of Formula I; (iii) introducing a basifying agent and an extraction solvent to reaction mixture of step (ii) to form organic-aqueous droplets; (iv) separating the organic and aqueous segments by passing through organic-aqueous droplets of step (iii) to micro-separator, in presence of a suitable extraction solvent system; (v) removing organic solvents to obtain compound of Formula I; and (vi) optionally, purifying compound of Formula I.
A method comprising: estimating a number of hits in a first ternary content addressable memory (TCAM) for a lookup key of a lookup request on the first TCAM; determining whether the number of hits satisfies a first threshold, wherein the first threshold corresponds to a lookup power budget for the first TCAM; based on a determination that the estimated number of hits satisfies the first threshold, splitting the lookup request into a plurality of lookup requests that each target a different set of one or more memory blocks of the first TCAM; and pipelining the plurality of lookup requests to a storage component of the first TCAM, wherein the storage component includes the memory blocks, wherein estimating the number of hits in the first TCAM comprises determining an estimate pattern count of a pattern that is within the lookup key and that should be stored within the first TCAM, wherein the pattern is formed from a subset of bits of the lookup key and wherein the estimated number of hits is the estimate pattern count of the pattern that should be within the first TCAM, wherein the first TCAM hosts multiple logical tables, further comprising the first TCAM maintaining in a register of the first TCAM counts of different patterns per logical table that should be in the storage component of the first TCAM. estimating a number of hits in a first ternary content addressable memory (TCAM) for a lookup key of a lookup request on the first TCAM; determining whether the number of hits satisfies a first threshold, wherein the first threshold corresponds to a lookup power budget for the first TCAM; based on a determination that the estimated number of hits satisfies the first threshold, splitting the lookup request into a plurality of lookup requests that each target a different set of one or more memory blocks of the first TCAM; and pipelining the plurality of lookup requests to a storage component of the first TCAM, wherein the storage component includes the memory blocks, wherein estimating the number of hits in the first TCAM comprises determining an estimate pattern count of a pattern that is within the lookup key and that should be stored within the first TCAM, wherein the pattern is formed from a subset of bits of the lookup key and wherein the estimated number of hits is the estimate pattern count of the pattern that should be within the first TCAM, wherein the first TCAM hosts multiple logical tables, further comprising the first TCAM maintaining in a register of the first TCAM counts of different patterns per logical table that should be in the storage component of the first TCAM.
Drilling device for producing a borehole in the ground with - a drilling tool driven in a rotating manner for removing ground material and - a container for receiving the removed ground material, - wherein the container has a lower feed opening, through which the removed ground material can be introduced into the container, and - the drilling tool has at least one drill flight which is arranged below the container and has removal tools, characterized in that - in an inlet area to the container between the drill flight and the feed opening an inlet section is provided, the pitch of which is increased with respect to a pitch of the drill flight. - a drilling tool driven in a rotating manner for removing ground material and - a container for receiving the removed ground material, - wherein the container has a lower feed opening, through which the removed ground material can be introduced into the container, and - the drilling tool has at least one drill flight which is arranged below the container and has removal tools, - in an inlet area to the container between the drill flight and the feed opening an inlet section is provided, the pitch of which is increased with respect to a pitch of the drill flight.
A body armour system comprising a jacket, a belt for supporting the jacket, and an interface for connecting the jacket to the belt, wherein the interface comprises a channel and a rim for fitting into the channel, the channel being integrally formed with one of the jacket and the belt, and the rim being integrally formed with an other one of the jacket and the belt, such that when the body armour system is worn the interface extends at least part way around the waist of a person, the interface being disposed atop an upper edge of the belt and beneath a lower edge of the jacket.
A power station installable on a deck in an open sea, which deck is supported by a number of legs, each of the number of legs comprising a float element driving a piston-pressure pump (30, 32, 34), the piston-pressure pump (30, 32, 34) comprising a vertical cylinder, the vertical cylinder comprising an upper piston and a lower positioned piston defining an adjustable bottom of the vertical cylinder, in the adjustable bottom of the vertical cylinder being mounted a no return valve for incoming air and a no return valve for outgoing air, between the no return valve for outgoing air and a compressed air pipe, which leads to an air receiver, is mounted a compressed air tube with the necessary length to give the adjustable bottom of the vertical cylinder the necessary freedom for its up and down movement, characterized in that the position of the bottom is regulated by a hydraulic system which is controlled by a floating sensor floating in the sea.
An organic electroluminescence device in which organic layers including at least a light-emitting layer are interposed between an anode and a cathode, wherein at least one layer of the above organic layers contains a blue phosphorescent organic metal complex having a structure represented by the following Formula and a compound represented by the following Formula: [wherein a ring Am, a ring An, a ring Bm and a ring Bn represent a five-membered or six-membered aromatic hydrocarbon ring or aromatic heterocycle; Ar represents an aromatic hydrocarbon ring, an aromatic heterocycle, a non-aromatic hydrocarbon ring or a non-aromatic heterocycle; R1m, R2m, R1n and R2n each represent independently an alkyl group having 2 or more carbon atoms, an aromatic hydrocarbon ring group, an aromatic heterocyclic group, a non-aromatic hydrocarbon ring group or a non-aromatic heterocyclic group, and they may have substituents; Ra, Rb and Rc each represent independently a hydrogen atom, a halogen atom, a cyano group, an alkyl group, an alkenyl group, an alkynyl group, an alkoxy group, an amino group, a silyl group, an arylalkyl group, an aryl group, a heteroaryl group, a non-aromatic hydrocarbon ring group or a non-aromatic heterocyclic group, and they may have substituents; Ra may form a ring with Ar; na and nc represent 1 or 2, and nb represents an integer of 1 to 4; m represents an integer of 1 to 3, and n represents an integer of 0 to 2; and m + n is 3]; [wherein X represents an oxygen atom or a sulfur atom; L represents a single bond or a linkage group derived from an aromatic hydrocarbon ring or an aromatic heterocycle; Aro and Ar' each represent independently an aromatic hydrocarbon ring or an aromatic heterocycle; 1 represents an integer of 0 to 3, and 1' represents an integer of 0 to 4].
An L-arabino-oligosaccharide according to the following general formula wherein the arabino-configured monosaccharides are either α- or β-connected, R is and Z is selected from a linker group according to the following formula wherein X can be selected from O, S, CH 2, and PO 4 -; and wherein Y can be selected from NH 2, CO 2 H, and wherein V is selected from a C 1 -C 6 alkyl or aryl residue; a D-galactose residue comprising Z, and a B-(1→6)-linked D-galactose oligosaccharide comprising Z, and wherein Z is optionally coupled to a proteinaceous group P, and pharmaceutically acceptable salts thereof. wherein V is selected from a C 1 -C 6 alkyl or aryl residue; a D-galactose residue comprising Z, and a B-(1→6)-linked D-galactose oligosaccharide comprising Z, and wherein Z is optionally coupled to a proteinaceous group P,
A power consumption control method, applied to user equipment comprising an application processor and a baseband processor modem, wherein the method comprises: obtaining, by the baseband processor, modem traffic information; sending, by the baseband processor, indication information to a base station when the modem traffic information meets a preset condition, wherein the indication information is used to instruct the base station to adjust a connected discontinuous reception, CDRX, cycle of the user equipment; receiving, by the baseband processor, first configuration information sent by the base station, wherein the first configuration information comprises CDRX information of the user equipment; and configuring, by the baseband processor, the CDRX cycle of the user equipment by using the first configuration information. obtaining, by the baseband processor, modem traffic information; sending, by the baseband processor, indication information to a base station when the modem traffic information meets a preset condition, wherein the indication information is used to instruct the base station to adjust a connected discontinuous reception, CDRX, cycle of the user equipment; receiving, by the baseband processor, first configuration information sent by the base station, wherein the first configuration information comprises CDRX information of the user equipment; and configuring, by the baseband processor, the CDRX cycle of the user equipment by using the first configuration information.