mhurhangee/ep-ind-claims huggingface dataset:
Drain comprising: - a housing with an inflow opening on the upper side and a discharge opening on the underside or side, and - a siphon comprising: - a first chamber with an elongate inflow opening; and - a second chamber connected to the first chamber via a passage opening, wherein the passage opening lies below the inflow opening during use, wherein the second chamber extends substantially in longitudinal direction of the elongate inflow opening, and wherein the second chamber comprises an outflow opening which lies above the passage opening during use, wherein the inflow opening of the housing is connected to the inflow opening of the siphon, and wherein the outflow opening of the siphon is connected to the discharge opening, wherein the outflow opening is arranged in longitudinal direction of the elongate inflow opening adjacently of this inflow opening; - an insert arranged in the housing,wherein the second chamber is arranged in the insert characterized in that - the insert being connected removably to the discharge opening via a flange, wherein the first chamber is formed by part of the housing and the insert, wherein the passage opening is arranged on the underside of the insert. - a housing with an inflow opening on the upper side and a discharge opening on the underside or side, and - a siphon comprising: - a first chamber with an elongate inflow opening; and - a second chamber connected to the first chamber via a passage opening, wherein the passage opening lies below the inflow opening during use, wherein the second chamber extends substantially in longitudinal direction of the elongate inflow opening, and wherein the second chamber comprises an outflow opening which lies above the passage opening during use, - a first chamber with an elongate inflow opening; and - a second chamber connected to the first chamber via a passage opening, wherein the passage opening lies below the inflow opening during use, wherein the second chamber extends substantially in longitudinal direction of the elongate inflow opening, and wherein the second chamber comprises an outflow opening which lies above the passage opening during use, - an insert arranged in the housing,wherein the second chamber is arranged in the insert characterized in that - the insert being connected removably to the discharge opening via a flange, wherein the first chamber is formed by part of the housing and the insert, wherein the passage opening is arranged on the underside of the insert.
Metering pump for a metering device for metered dispensing of a liquid which is connectable to a storage container, comprising a cylindrical pump body which comprises a first hollow cylindrical pump body portion which is open in the direction of the storage container and a second hollow cylindrical pump body portion which is open in the direction of an actuation body, an inner hollow cylinder which is open at both ends which is mounted on the first pump body portion and is arranged concentrically to the latter, a plunger which has a thoroughgoing channel which is mounted concentrically in the pump body and moveably in the inner hollow cylinder, and is configured to form a seal with an inner wall of the inner hollow cylinder, and an actuation body which is connected to the pump body and mounted moveably relative to the pump body, which actuation body has, on an upper end, an outlet for liquid and a recess which is open in the direction of the second pump body portion, wherein a liner is received inside the recess, which liner has a recess which is open in the direction of the second pump body portion, the liner being disposed to form a fluidic seal relative to the plunger and having a liquid channel through which a liquid can be guided from the recess of the liner to the outlet of the actuation body, a non-return valve which is mounted moveably and configured to form a fluidic seal relative to the recess of the liner being disposed inside the recess of the liner, which non-return valve, in the unactuated state of the metering pump, fluidically seals the channel of the plunger relative to the recess of the liner and opens the channel of the plunger and also the liquid channel of the liner during actuation of the metering pump, characterized in that the non-return valve having at least one sealing element (151, 152) which enables fluidic sealing of the non-return valve relative to the plunger, wherein the at least one sealing element (151, 152) is disposed on the base-side on the non-return valve and is disposed, with respect to the base of the non-return valve, at an angle of 5 to 175°.
A vehicle charging station for charging an electrically powered vehicle, said vehicle charging station comprising: a power source; and a charging device coupled to said power source, said charging device configured to: control a charging process between said power source and an electrically powered vehicle; transmit, via at least one network, a first electronic message to a user, the first electronic message including a charging error and an indication that the charging process has been suspended; and receive, via the at least one network, a second electronic message from the user, the second electronic message including a user command that indicates acceptance of longer charging time, a different voltage, or a partial charge in order to allow the charging process to be resumed; resume the charging process in response to receiving the user command of the second electronic message, wherein said charging device is configured to receive a user profile from the electrically powered vehicle, wherein the user profile includes contact information, and wherein the charging device is configured to transmit the first message based on the contact information. a power source; and a charging device coupled to said power source, said charging device configured to: control a charging process between said power source and an electrically powered vehicle; transmit, via at least one network, a first electronic message to a user, the first electronic message including a charging error and an indication that the charging process has been suspended; and receive, via the at least one network, a second electronic message from the user, the second electronic message including a user command that indicates acceptance of longer charging time, a different voltage, or a partial charge in order to allow the charging process to be resumed; resume the charging process in response to receiving the user command of the second electronic message, control a charging process between said power source and an electrically powered vehicle; transmit, via at least one network, a first electronic message to a user, the first electronic message including a charging error and an indication that the charging process has been suspended; and receive, via the at least one network, a second electronic message from the user, the second electronic message including a user command that indicates acceptance of longer charging time, a different voltage, or a partial charge in order to allow the charging process to be resumed; resume the charging process in response to receiving the user command of the second electronic message, wherein said charging device is configured to receive a user profile from the electrically powered vehicle, wherein the user profile includes contact information, and wherein the charging device is configured to transmit the first message based on the contact information.
A method of triggering roaming in a network device, comprising: detecting, by a network device, a speed of the network device; ascertaining, by the network device, one or more trigger values corresponding to one or more trigger events at the speed of the network device from a profile configured at the network device, wherein the profile includes a set of trigger values at a plurality of different speeds or ranges of speeds; ascertaining, by the network device, one or more trigger counters associated with the one or more trigger events; and triggering roaming of the network device when one of the trigger counters associated with one of the trigger events is equal to or exceeds one of the trigger values that correspond to the one of the trigger events and the speed of the network device. detecting, by a network device, a speed of the network device; ascertaining, by the network device, one or more trigger values corresponding to one or more trigger events at the speed of the network device from a profile configured at the network device, wherein the profile includes a set of trigger values at a plurality of different speeds or ranges of speeds; ascertaining, by the network device, one or more trigger counters associated with the one or more trigger events; and triggering roaming of the network device when one of the trigger counters associated with one of the trigger events is equal to or exceeds one of the trigger values that correspond to the one of the trigger events and the speed of the network device.
A portable air compressor comprising an air compressor body, an air pump and a motor both provided inside the air compressor body and electrically connected to each other, and a power supply circuit; wherein the portable air compressor further comprises a multi-functional portable start power supply for vehicle batteries; wherein the power supply circuit comprises a circuit for the air compressor body, a consumption circuit for the portable power supply and a charging circuit for the portable power supply, with electrical connection structures being provided between the consumption circuit for the portable power supply and the circuit for the air compressor body and between the charging circuit for the portable power supply and the circuit for the air compressor body; wherein the portable power supply is detachable from, and mountable on, the air compressor body such that with the portable power supply mounted on the air compressor body, the consumption circuit for the portable power supply and the charging circuit for the portable power supply are electrically connected to the circuit for the air compressor body by the electrical connection structures, and with the portable power supply removed, the electrical connection structures are disconnected; further characterised in that the portable power supply comprises a charging port and a consumption socket which is able to supply power of various voltages and currents.
Packaging for a breast implant, the packaging comprising a lid and a cavity, characterised in that the lid provides a delivery device for direct delivery of the breast implant from the packaging to a surgical pocket, wherein the lid comprises an inner lid and an outer lid, the inner lid including the delivery device.
A method of making an abrasive article comprising: disposing a curable tacky adhesive composition on a substrate, wherein the tacky curable adhesive composition comprises a resole phenolic resin and an aliphatic tack modifier, and wherein the amount of resole phenolic resin comprises from 90 to 98 weight percent of the combined weight of the resole phenolic resin and the aliphatic tack modifier; adhering abrasive particles to the curable tacky adhesive composition; and at least partially curing the curable tacky adhesive composition. disposing a curable tacky adhesive composition on a substrate, wherein the tacky curable adhesive composition comprises a resole phenolic resin and an aliphatic tack modifier, and wherein the amount of resole phenolic resin comprises from 90 to 98 weight percent of the combined weight of the resole phenolic resin and the aliphatic tack modifier; adhering abrasive particles to the curable tacky adhesive composition; and at least partially curing the curable tacky adhesive composition.
Apparatus for processing a laboratory sample contained in a laboratory sample container, the apparatus comprising: - an optical sensing unit for sensing a transmittance at different vertical positions through the laboratory sample container, - a tip sensing unit having a tip, wherein the tip sensing unit is adapted to provide a tip sensing signal (tLDS) depending on a position of the tip relative to the sample, and - a process control unit, being adapted to control the processing of the laboratory sample in response to the transmittance and the tip sensing signal (tLDS). - an optical sensing unit for sensing a transmittance at different vertical positions through the laboratory sample container, - a tip sensing unit having a tip, wherein the tip sensing unit is adapted to provide a tip sensing signal (tLDS) depending on a position of the tip relative to the sample, and - a process control unit, being adapted to control the processing of the laboratory sample in response to the transmittance and the tip sensing signal (tLDS).
A method for identifying markers, comprising: a. providing an array of nanopores, wherein an individual nanopore of said array is individually addressable by an adjacent sensing electrode; b. providing a plurality of markers (705, 710) that each comprise a first probe and a second probe that hybridize to adjacent sequences on a nucleic acid sample, wherein the markers are capable of being captured by the individual nanopore and identified using the sensing electrode, and wherein the markers (705, 710) are generated by: i) hybridizing the first probe to the nucleic acid sample; ii) hybridizing the second probe to the nucleic acid sample adjacent to the first probe; and iii) ligating the first probe to the second probe to produce a combined probe, thereby generating the marker (705, 710); c. capturing the markers (705, 710) with a magnetically attractable bead attached to an oligonucleotide, wherein the oligonucleotide hybridizes with a marker (705, 710), and wherein the captured markers (705, 710) are magnetically presented or concentrated near a nanopore; and d. identifying the markers (705, 710) in solution with the array of nanopores, wherein the markers (705, 710) are identified based on a voltage at which the markers (705, 710) leave the nanopore; wherein the capturing and identifying in steps c) and d) is at a rate of at least 1 marker per second per nanopore. a. providing an array of nanopores, wherein an individual nanopore of said array is individually addressable by an adjacent sensing electrode; b. providing a plurality of markers (705, 710) that each comprise a first probe and a second probe that hybridize to adjacent sequences on a nucleic acid sample, wherein the markers are capable of being captured by the individual nanopore and identified using the sensing electrode, and wherein the markers (705, 710) are generated by: i) hybridizing the first probe to the nucleic acid sample; ii) hybridizing the second probe to the nucleic acid sample adjacent to the first probe; and iii) ligating the first probe to the second probe to produce a combined probe, thereby generating the marker (705, 710); i) hybridizing the first probe to the nucleic acid sample; ii) hybridizing the second probe to the nucleic acid sample adjacent to the first probe; and iii) ligating the first probe to the second probe to produce a combined probe, thereby generating the marker (705, 710); c. capturing the markers (705, 710) with a magnetically attractable bead attached to an oligonucleotide, wherein the oligonucleotide hybridizes with a marker (705, 710), and wherein the captured markers (705, 710) are magnetically presented or concentrated near a nanopore; and d. identifying the markers (705, 710) in solution with the array of nanopores, wherein the markers (705, 710) are identified based on a voltage at which the markers (705, 710) leave the nanopore;
A polymerization initiator comprising the reaction product of a metal-organic titanium compound or a metal-organic zirconium compound and pinacol compound of the following general formula: wherein R 1 and R 3 are the same or different substituted or unsubstituted aromatic groups; wherein R 2 and R 4 are the same or different substituted or unsubstituted aliphatic or aromatic groups; and wherein X and Y are the same or different and may comprise hydroxyl, alkoxy, or aryloxy groups. wherein R 1 and R 3 are the same or different substituted or unsubstituted aromatic groups; wherein R 2 and R 4 are the same or different substituted or unsubstituted aliphatic or aromatic groups; and wherein X and Y are the same or different and may comprise hydroxyl, alkoxy, or aryloxy groups.
Reinforcing bar for concrete construction, consisting of a fibre-reinforced plastics profile which has been produced by pultrusion, wherein the plastics profile (15, 16, 17) has been produced using a stay-in-place shell (11, 12, 13, 14, 18, 19, 20, 25, 26, 27) which serves as shaping tool during the pultrusion process and remains on the plastics profile (15, 16, 17) also after the pultrusion process, characterised in that the stay-in-place shell consists of plastics material.
A sensor for sensing a flow rate of a fluid, the sensor comprising: an upstream resistive element (Rup-1) having a first resistance that changes with temperature; a downstream resistive element (Rdwn-1) having a second resistance that changes with temperature, wherein the downstream resistive element (Rdwn-1) is situated downstream of the upstream resistive element (Rup-1) in a flow direction of the fluid, wherein the upstream resistive element (Rup-1) and the downstream resistive element (Rdwn-1) are operatively connected in a bridge circuit; at least one tail resistor (Rtail-1), wherein the at least one tail resistor (Rtail-1) is stable with temperature; a heating element (Rheater) configured to heat the fluid flowing through a flow channel, wherein the at least one tail resistor (Rtail-1) is electrically connected in series to the heating element (Rheater); at least one pressure sensor (120, 122) configured to determine a differential pressure in the flow direction of the fluid; and a circuitry configured to use the differential pressure with a determined thermal conductivity to determine a kinematic viscosity of the fluid, and compensate an output of the bridge circuit, wherein the circuitry is configured to measure a voltage difference between the heating element (Rheater) and the tail resistor (Rtail-1), wherein the voltage difference is indicative of power dissipated by the fluid, and determine the thermal conductivity of the fluid using the voltage difference between the heating element (Rheater) and the tail resistor (Rtail-1). an upstream resistive element (Rup-1) having a first resistance that changes with temperature; a downstream resistive element (Rdwn-1) having a second resistance that changes with temperature, wherein the downstream resistive element (Rdwn-1) is situated downstream of the upstream resistive element (Rup-1) in a flow direction of the fluid, wherein the upstream resistive element (Rup-1) and the downstream resistive element (Rdwn-1) are operatively connected in a bridge circuit; at least one tail resistor (Rtail-1), wherein the at least one tail resistor (Rtail-1) is stable with temperature; a heating element (Rheater) configured to heat the fluid flowing through a flow channel, wherein the at least one tail resistor (Rtail-1) is electrically connected in series to the heating element (Rheater); at least one pressure sensor (120, 122) configured to determine a differential pressure in the flow direction of the fluid; and a circuitry configured to use the differential pressure with a determined thermal conductivity to determine a kinematic viscosity of the fluid, and compensate an output of the bridge circuit, wherein the circuitry is configured to measure a voltage difference between the heating element (Rheater) and the tail resistor (Rtail-1), wherein the voltage difference is indicative of power dissipated by the fluid, and determine the thermal conductivity of the fluid using the voltage difference between the heating element (Rheater) and the tail resistor (Rtail-1).
A method of treating a fabric, the method comprising the steps of: (i) contacting a fabric with a cleaning composition comprising from 5 to 80 % by weight anionic surfactant and a nuclease enzyme, preferably a deoxyribonuclease or ribonuclease enzyme; wherein the cleaning composition is applied directly to the surface of the fabric and is in the form of a liquid, a gel or a dry composition which is first formed into a paste or slurry; (ii) optionally applying friction to rub said cleaning composition into the fabric surface.
Starter device for an internal combustion engine, having a starter pinion which is axially movable between an inoperative position and an advanced drive position and is seated on a shaft, having a securing ring seated on the shaft for limiting the axial movement of the starter pinion, wherein a securing recess is incorporated in the end face of the starter pinion, into which said securing ring projects and which fixes the securing ring radially in its position on the shaft, wherein the starter pinion is axially displaceable into a removal position in which the securing ring lies axially outside of the securing recess and which can be radially expanded, wherein a removal recess, which is incorporated in the starter pinion and has a larger diameter than the securing recess, adjoins the securing recess within the starter pinion, wherein the removal recess is arranged directly adjacent to the end face in the starter pinion, characterized in that the removal recess has a smaller axial extension than the thickness of the securing ring.
An adhesive polymer composition comprising a) a non-elastomeric copolymer of ethylene and one or more comonomers having 3 to 10 carbon atoms, which non-elastomeric copolymer is present in an amount of 60 to 95 % by weight, based on the adhesive polymer composition, wherein the non-elastomeric copolymer has (i) a molecular weight distribution Mw/Mn in the range of more than 2.5 to less than 4.0, (ii) a density of from 0.925 to 0.945 g/cm 3, determined according to ISO 1183 -1 method A using compression moulded samples, and (iii) a content of vinyl groups/ 1000 carbon atoms in the range of more than 0.1 up to 0.6, determined by quantitative nuclear-magnetic resonance spectroscopy in solution, and b) an elastomer, which is an elastomeric ethylene copolymer, wherein the non-elastomeric copolymer or the non-elastomeric copolymer and the elastomer have been grafted with an acid grafting agent. a) a non-elastomeric copolymer of ethylene and one or more comonomers having 3 to 10 carbon atoms, which non-elastomeric copolymer is present in an amount of 60 to 95 % by weight, based on the adhesive polymer composition, wherein the non-elastomeric copolymer has (i) a molecular weight distribution Mw/Mn in the range of more than 2.5 to less than 4.0, (ii) a density of from 0.925 to 0.945 g/cm 3, determined according to ISO 1183 -1 method A using compression moulded samples, and (iii) a content of vinyl groups/ 1000 carbon atoms in the range of more than 0.1 up to 0.6, determined by quantitative nuclear-magnetic resonance spectroscopy in solution, and (i) a molecular weight distribution Mw/Mn in the range of more than 2.5 to less than 4.0, (ii) a density of from 0.925 to 0.945 g/cm 3, determined according to ISO 1183 -1 method A using compression moulded samples, and (iii) a content of vinyl groups/ 1000 carbon atoms in the range of more than 0.1 up to 0.6, determined by quantitative nuclear-magnetic resonance spectroscopy in solution, and b) an elastomer, which is an elastomeric ethylene copolymer,