mhurhangee/ep-ind-claims huggingface dataset:
An apparatus, comprising: an engine stop module structured to receive a stop command, the stop command providing an indication of an engine transitioning to an off state; an engine position module structured to: receive position data indicative of a position of a crankshaft of the engine; and determine a stop position of the crankshaft based on the position data when the engine is in the off state; an engine restart module 136 structured to receive a restart command, the restart command providing an indication of the engine transitioning from the off state to an on state; and an engine ignition module structured to facilitate a restart of the engine to the on state responsive to the restart command, wherein the engine ignition module is structured to determine a first viable cylinder to begin combustion in based on the determined stop position of the crankshaft and a firing order for the engine, wherein the first viable cylinder is a cylinder immediately following a cylinder that would have experienced a next combustible event according to the firing order but for the engine reaching the off state. an engine stop module structured to receive a stop command, the stop command providing an indication of an engine transitioning to an off state; an engine position module structured to: receive position data indicative of a position of a crankshaft of the engine; and determine a stop position of the crankshaft based on the position data when the engine is in the off state; receive position data indicative of a position of a crankshaft of the engine; and determine a stop position of the crankshaft based on the position data when the engine is in the off state; an engine restart module 136 structured to receive a restart command, the restart command providing an indication of the engine transitioning from the off state to an on state; and an engine ignition module structured to facilitate a restart of the engine to the on state responsive to the restart command, wherein the engine ignition module is structured to determine a first viable cylinder to begin combustion in based on the determined stop position of the crankshaft and a firing order for the engine, wherein the first viable cylinder is a cylinder immediately following a cylinder that would have experienced a next combustible event according to the firing order but for the engine reaching the off state.
Method for obtaining proteins from soy milk, comprising i. provision of soy milk; ii. addition of an aqueous alcohol with a concentration of less than 80% by volume to the soy milk with formation of an organic-aqueous suspension in such a way that a shift in the solubility equilibrium takes place due to the addition of aqueous alcohol and a displacement extraction takes place, wherein the volume of the aqueous alcohol is selected in such a way that the content of the organic solvent of the organic-aqueous suspension after step ii. is at least 15% by volume and that the dry substance content of the suspension is at least 5%; iii. separation of an oil phase from the suspension; iv. coagulation of the proteins to form at least one protein phase by adjusting the suspension to a pH value of less than pH=7 or by adding a protein-coagulate-forming salt; and v. separation of the protein phase with a residual oil content of less than 5 wt.%, based on the dry substance content of the protein phase, from the suspension. i. provision of soy milk; ii. addition of an aqueous alcohol with a concentration of less than 80% by volume to the soy milk with formation of an organic-aqueous suspension in such a way that a shift in the solubility equilibrium takes place due to the addition of aqueous alcohol and a displacement extraction takes place, wherein the volume of the aqueous alcohol is selected in such a way that the content of the organic solvent of the organic-aqueous suspension after step ii. is at least 15% by volume and that the dry substance content of the suspension is at least 5%; iii. separation of an oil phase from the suspension; iv. coagulation of the proteins to form at least one protein phase by adjusting the suspension to a pH value of less than pH=7 or by adding a protein-coagulate-forming salt; and v. separation of the protein phase with a residual oil content of less than 5 wt.%, based on the dry substance content of the protein phase, from the suspension.
A circuit interrupter comprising: a busbar; a Rogowski coil disposed around the busbar and structured to sense current having a first frequency flowing through the busbar; a test injector circuit structured to input a test signal to the Rogowski coil; high pass or band pass filter circuitry structured to receive an output of the Rogowski coil; and an electronic trip unit including a temperature measurement unit, characterised in that: the test signal has a second frequency, the output of the Rogowski coil includes a first component and a second component, the first component having the first frequency and being proportional to the current flowing through the busbar, the second component having the second frequency and being proportional to a temperature of the Rogowski coil, the high pass or band pass filter circuitry is structured to attenuate the first component of the output of the Rogowski coil, and the temperature measurement unit is structured to receive an output of the high pass or band pass filter circuitry and to estimate the temperature of the busbar based on the output of the high pass or band pass filter circuitry. a busbar; a Rogowski coil disposed around the busbar and structured to sense current having a first frequency flowing through the busbar; a test injector circuit structured to input a test signal to the Rogowski coil; high pass or band pass filter circuitry structured to receive an output of the Rogowski coil; and an electronic trip unit including a temperature measurement unit, the test signal has a second frequency, the output of the Rogowski coil includes a first component and a second component, the first component having the first frequency and being proportional to the current flowing through the busbar, the second component having the second frequency and being proportional to a temperature of the Rogowski coil, the high pass or band pass filter circuitry is structured to attenuate the first component of the output of the Rogowski coil, and the temperature measurement unit is structured to receive an output of the high pass or band pass filter circuitry and to estimate the temperature of the busbar based on the output of the high pass or band pass filter circuitry.
A drying appliance comprising: a drum for processing laundry; a heat exchanger to cool and condense moisture-laden air received from the drum; a blower channel for moving dry air from the heat exchanger to the drum; a drain structure disposed under the heat exchanger, wherein the drain structure is configured to receive and evacuate condensate from the heat exchanger; a sump area connected to the drain structure for collecting the condensate; the drying appliance being characterized in that it further comprises an air channel extending from the sump area to the blower channel, wherein the air channel is configured to provide air flow communication between the sump area and the blower channel; a base structure disposed under the drum, wherein at least a portion of the drain structure is formed in the base structure, and wherein the base structure is configured to support the heat exchanger. a drum for processing laundry; a heat exchanger to cool and condense moisture-laden air received from the drum; a blower channel for moving dry air from the heat exchanger to the drum; a drain structure disposed under the heat exchanger, wherein the drain structure is configured to receive and evacuate condensate from the heat exchanger; a sump area connected to the drain structure for collecting the condensate; the drying appliance being characterized in that it further comprises an air channel extending from the sump area to the blower channel, wherein the air channel is configured to provide air flow communication between the sump area and the blower channel; a base structure disposed under the drum, wherein at least a portion of the drain structure is formed in the base structure, and wherein the base structure is configured to support the heat exchanger.
Exercise apparatus comprising: a support structure; at least one pedal that is moveably attached to the support structure to move relative to the support structure in a cycle, said pedal being configured to receive a crank fashion load from a user to exert a torque by force on the pedal; a motor; and a power controller that is configured to control the motor; said support structure being configured such that, when a foot of the user engages the pedal, the user's body is in a generally upright orientation; said motor is configured to drive the pedal in its cycle to rotate in a rotation direction, said controller is configured to control the motor to run at a predetermined speed, characterised in that said apparatus includes a user interface that is configured for entering the predetermined speed of the motor and said motor and power controller are configured to limit torque exerted by the motor to drive the pedal in the rotation direction against the resistance of the user during use in a primarily eccentric muscle action, to a predetermined maximum torque, and said user interface is configured for entering the predetermined maximum torque, and wherein said motor is an AC servo motor and the torque exerted by the motor to drive the pedal in its cycle in the second direction, is limited by limiting the current supplied to the motor. a support structure; at least one pedal that is moveably attached to the support structure to move relative to the support structure in a cycle, said pedal being configured to receive a crank fashion load from a user to exert a torque by force on the pedal; a motor; and a power controller that is configured to control the motor; said support structure being configured such that, when a foot of the user engages the pedal, the user's body is in a generally upright orientation; said motor is configured to drive the pedal in its cycle to rotate in a rotation direction, said controller is configured to control the motor to run at a predetermined speed, characterised in that said apparatus includes a user interface that is configured for entering the predetermined speed of the motor and said motor and power controller are configured to limit torque exerted by the motor to drive the pedal in the rotation direction against the resistance of the user during use in a primarily eccentric muscle action, to a predetermined maximum torque, and said user interface is configured for entering the predetermined maximum torque, and wherein said motor is an AC servo motor and the torque exerted by the motor to drive the pedal in its cycle in the second direction, is limited by limiting the current supplied to the motor.
Working cylinder comprising a cylinder tube with an internal thread in a first end region and comprising a closing component with an external thread, and the closing component is screwed via its external thread into the internal thread of the cylinder tube, the closing component has a bore with an internal thread that is arranged transversally to the center axis of the working cylinder, a safety screw is screwed into the borne, the end region comprises an edge, which faces the closing component and has a tapered wall, and a free space is formed radially between the edge and the closing component, the head of the safety screw overlaps the edge in sections, characterized in that the edge has a local deformation segment, and said deformation segment can be produced by the head of the safety screw by means of screwing-in the safety screw and by deforming the edge, the deformation segment enters into the free space, and the head of the safety screw and the deformation segment are positively connected with each other.
A process for making a dry and stable hemostatic composition, said process comprising a) providing a first component comprising a dry thrombin preparation, b) providing a second component comprising a dry preparation of a crosslinked gelatin, c) providing said first component and said second component in a combined form in a final container by filling said first component and said second component into said final container so as to obtain a dry mixture in said final container, d) finishing the final container to a storable pharmaceutical device containing said first component and said second component in a combined form as a dry and stable hemostatic composition. a) providing a first component comprising a dry thrombin preparation, b) providing a second component comprising a dry preparation of a crosslinked gelatin, c) providing said first component and said second component in a combined form in a final container by filling said first component and said second component into said final container so as to obtain a dry mixture in said final container, d) finishing the final container to a storable pharmaceutical device containing said first component and said second component in a combined form as a dry and stable hemostatic composition.
A rail fastening system for the friction-locked resilient fastening of a rail on a sleeper of a rail track system, comprising at least one angle guide plate that can be fixed to the sleeper by at least one fastening element having at least one shank, and at least one tension clamp, the angled guide plate being designed to hold the tension clamp in a preinstallation position and in final installation position, characterized in that a sealing element is arranged on or in the angled guide plate and/or in a component to be connected to the angled guide plate and which sealing element, both in the preinstallation position and in the final installation position, rests in a sealing manner with at least one sealing surface against the shank of the fastening element and with at least one second sealing surface against the angled guide plate and/or against the component to be connected to the angled guide plate.
A method of characterising a target polynucleotide, comprising: (a) contacting the target polynucleotide with a transmembrane pore and a XPD helicase such that the target polynucleotide moves through the pore and the XPD helicase controls the movement of the target polynucleotide through the pore; and (b) taking one or more electrical and/or optical measurements as the polynucleotide moves with respect to the pore wherein the electrical measurement is a current measurement, an impedance measurement, a tunnelling measurement or a field effect transistor measurement and wherein the one or more electrical and/or optical measurements are indicative of one or more characteristics of the target polynucleotide and thereby characterising the target polynucleotide, wherein the method is carried out using a salt concentration of at least 0.3M. (a) contacting the target polynucleotide with a transmembrane pore and a XPD helicase such that the target polynucleotide moves through the pore and the XPD helicase controls the movement of the target polynucleotide through the pore; and (b) taking one or more electrical and/or optical measurements as the polynucleotide moves with respect to the pore wherein the electrical measurement is a current measurement, an impedance measurement, a tunnelling measurement or a field effect transistor measurement and wherein the one or more electrical and/or optical measurements are indicative of one or more characteristics of the target polynucleotide and thereby characterising the target polynucleotide,
A high-performance glass fiber composition, characterized by, comprising the following components expressed as percentage by weight: SiO 2 57.4-61.4% Al 2 O 3 17.1-21% MgO 10.3-14% Y 2 O 3 1.1-4.3% CaO <6.5% Li 2 O+Na 2 O+K 2 O ≤1% Li 2 O ≤0.75% TiO 2 <1.8% Fe 2 O 3 0.05-1.2% wherein, the combined weight percentage of the components listed above is at least 98%, and the range of the weight percentage ratio C1= Al 2 O 3 /SiO 2 is 0.294-0.346, the weight percentage ratio C2= (Al 2 O 3 +MgO+Li 2 O)/Y 2 O 3 is 7.2-15.
A transformer-based power conversion system, comprising: a microtransformer (130, 230) having primary and secondary coils, the primary coil (130.1; 2302.2, 2302.1) being a member of a first circuit loop (110, 210) and the secondary coil (130.2; 2301.2, 2301.1) being a member of a second circuit loop (120, 220), an energy switch coupled to the primary coil (130.1; 2302.2, 2302.1) to selectively enable and disable a current path through the primary coil, an oscillator (140, 240) coupled to the energy switch to control activation of the energy switch, and a feedback switch SW2 coupled to the oscillator (140, 240) to selectively enable and disable the oscillator in response to a feedback control ignal from the second circuit loop (120, 220), wherein the energy switch is the only microtransformer control switch provided in a current path between a microtransformer supply voltage and ground. a microtransformer (130, 230) having primary and secondary coils, the primary coil (130.1; 2302.2, 2302.1) being a member of a first circuit loop (110, 210) and the secondary coil (130.2; 2301.2, 2301.1) being a member of a second circuit loop (120, 220), an energy switch coupled to the primary coil (130.1; 2302.2, 2302.1) to selectively enable and disable a current path through the primary coil, an oscillator (140, 240) coupled to the energy switch to control activation of the energy switch, and a feedback switch SW2 coupled to the oscillator (140, 240) to selectively enable and disable the oscillator in response to a feedback control ignal from the second circuit loop (120, 220), wherein the energy switch is the only microtransformer control switch provided in a current path between a microtransformer supply voltage and ground.
The use of a composition comprising: i) oligomers comprising from 93 to 99.5 weight % at least one first monomer and from 0.5% to 7 weight % at least one ionic monomer, as polymerized units, based on weight of said oligomers and formed by the polymerization of ethylenically unsaturated monomers; wherein said oligomers have a weight average molecular weight in the range of 1,500 to 25,000; and wherein said oligomers are dispersed in an aqueous medium and ii) at least one stabilizing surfactant for fatliquoring leather. i) oligomers comprising from 93 to 99.5 weight % at least one first monomer and from 0.5% to 7 weight % at least one ionic monomer, as polymerized units, based on weight of said oligomers and formed by the polymerization of ethylenically unsaturated monomers; wherein said oligomers have a weight average molecular weight in the range of 1,500 to 25,000; and wherein said oligomers are dispersed in an aqueous medium and ii) at least one stabilizing surfactant
An energy management gateway (106, 208, 306) comprising: a memory; a processor coupled to the memory; a building management system, BMS, interface executed by the processor and configured to receive a first message, the first message being structured according to an industrial protocol; an energy management system interface executed by the processor and configured to: translate the first message into a second message structured according to an energy management protocol different from the industrial protocol, the second message including a query comprising at least one command and a set of qualifiers, the query being addressed to at least one first endpoint and including at least one of a sum command and a set command; and provide the second message to a first domain member of a first domain including the at least one first endpoint, the first domain member being a device other than the energy management gateway (106, 208, 306), the first domain member being a device other than the at least one first endpoint. a memory; a processor coupled to the memory; a building management system, BMS, interface executed by the processor and configured to receive a first message, the first message being structured according to an industrial protocol; an energy management system interface executed by the processor and configured to: translate the first message into a second message structured according to an energy management protocol different from the industrial protocol, the second message including a query comprising at least one command and a set of qualifiers, the query being addressed to at least one first endpoint and including at least one of a sum command and a set command; and provide the second message to a first domain member of a first domain including the at least one first endpoint, the first domain member being a device other than the energy management gateway (106, 208, 306), the first domain member being a device other than the at least one first endpoint. translate the first message into a second message structured according to an energy management protocol different from the industrial protocol, the second message including a query comprising at least one command and a set of qualifiers, the query being addressed to at least one first endpoint and including at least one of a sum command and a set command; and provide the second message to a first domain member of a first domain including the at least one first endpoint, the first domain member being a device other than the energy management gateway (106, 208, 306), the first domain member being a device other than the at least one first endpoint.