mhurhangee/ep-ind-claims huggingface dataset:
A report processing apparatus comprising: means for obtaining first report information reported from a terminal apparatus with respect to a target emergency event; means for analyzing a location of the terminal apparatus based on the first report information and determining one or more first report destinations (401, 405) associated with the target emergency event from a plurality of candidate report destinations (401 - 405) based on the location of the terminal apparatus, the one or more first report destinations (404, 405) being one or more radio communication apparatuses located in a predetermined neighborhood area from the location of the terminal apparatus; means for transmitting information related to the first report information to the one or more first report destinations (404, 405), the information related to the first report information including information for requesting second report information; and means for receiving the second report information from the one or more first report destinations (404, 405); wherein the means for determining are configured to determine one or more second report destinations (401, 402, 403) from the plurality of candidate report destinations based on the second report information; and the means for transmitting are configured to transmit information related to the second report information to the one or more second report destinations (401, 402, 403). means for obtaining first report information reported from a terminal apparatus with respect to a target emergency event; means for analyzing a location of the terminal apparatus based on the first report information and determining one or more first report destinations (401, 405) associated with the target emergency event from a plurality of candidate report destinations (401 - 405) based on the location of the terminal apparatus, the one or more first report destinations (404, 405) being one or more radio communication apparatuses located in a predetermined neighborhood area from the location of the terminal apparatus; means for transmitting information related to the first report information to the one or more first report destinations (404, 405), the information related to the first report information including information for requesting second report information; and means for receiving the second report information from the one or more first report destinations (404, 405); wherein the means for determining are configured to determine one or more second report destinations (401, 402, 403) from the plurality of candidate report destinations based on the second report information; and the means for transmitting are configured to transmit information related to the second report information to the one or more second report destinations (401, 402, 403).
Dynamic transaction card (120, 200, 300) comprising: - a EuroPay-MasterCard-Visa-processor (126, 212, 312, 812) as EMV-processor storing existing firmware and version data associated with the existing firmware; - an EMV plate connectively coupled to the EMV processor (212,...); - a bootloader (222, 322); and - an input/output interface for receiving an updated firmware program from a firmware provider system; wherein - the EMV-processor (212,...) is configured to receive, via contacts on the EMV plate, an update component associated with the updated firmware program transmitted from the firmware provider system during a secure communication with the firmware provider system via a secure terminal (140,150), wherein the update component is used to validate the received updated firmware program; - the bootloader (222, 322) is configured to load the updated firmware program on the dynamic transaction card (120,...) in response to the validation of the updated firmware program and execute the updated firmware program overwriting the existing firmware; and - the EMV-processor (212,...) is configured to store and use the updated firmware program in response to the bootloader (223, 322) loading and executing the updated firmware program; characterized in that the dynamic transaction card (120,...) comprises at least one plastic jumper which connects electrical components of the dynamic transaction card (120,...), wherein upon tampering with the dynamic transaction card (120,...), the at least one plastic jumper dissolves to break the connection between the electrical components. - a EuroPay-MasterCard-Visa-processor (126, 212, 312, 812) as EMV-processor storing existing firmware and version data associated with the existing firmware; - an EMV plate connectively coupled to the EMV processor (212,...); - a bootloader (222, 322); and - an input/output interface for receiving an updated firmware program from a firmware provider system; wherein - the EMV-processor (212,...) is configured to receive, via contacts on the EMV plate, an update component associated with the updated firmware program transmitted from the firmware provider system during a secure communication with the firmware provider system via a secure terminal (140,150), wherein the update component is used to validate the received updated firmware program; - the bootloader (222, 322) is configured to load the updated firmware program on the dynamic transaction card (120,...) in response to the validation of the updated firmware program and execute the updated firmware program overwriting the existing firmware; and - the EMV-processor (212,...) is configured to store and use the updated firmware program in response to the bootloader (223, 322) loading and executing the updated firmware program; characterized in that the dynamic transaction card (120,...) comprises at least one plastic jumper which connects electrical components of the dynamic transaction card (120,...), wherein upon tampering with the dynamic transaction card (120,...), the at least one plastic jumper dissolves to break the connection between the electrical components.
Cutting machine for cutting sheet material in stacks, having a pressure beam which is lowerable onto the material, wherein the pressure beam is mounted so as to be vertically displaceable in a machine frame, and hydraulically acting means for lowering the pressure beam onto the material are provided, wherein the pressure beam by means of the hydraulically acting means is activatable by way of a lever assembly, characterized in that a counterweight assembly which impinges the lever assembly counter to the weight of the pressure beam acts on the lever assembly.
Method for examining sample particles by X-ray radiation, comprising the steps: a) Generating a flow of a sample fluid along a fluid path in a transport direction Y, wherein sample particles are distributed in the sample fluid; b) Exposing the sample fluid flowing through a first application section of the fluid path to a first laser light generated by a first laser light source for a first holding time period such that a first optical light pressure is applied on sample particles entering the first application section resulting in a bunch of sample particles, which is released at the end of the first holding time period; c) Repeating step b) such that the fluid flow of the sample fluid leaving the first application section carries a first sequence of spaced bunches of sample particles; d) Exposing the sample fluid flowing through a detection section of the fluid path downstream to the first application section to an X-ray set of at least one X-ray pulse generated by an X-ray source; e) Repeating step d) to form a second sequence of spaced X-ray sets such that each of the spaced X-ray sets partly or fully intersects a different bunch (12, 32) of the bunches (12, 32) of sample particles carried by the sample fluid flowing through the detection section; and f) Detecting by means of an X-ray detector an X-ray radiation formed by the X-ray pulses of the second sequence of spaced X-ray sets modified by the bunches (12,32) of sample particles in step e). a) Generating a flow of a sample fluid along a fluid path in a transport direction Y, wherein sample particles are distributed in the sample fluid; b) Exposing the sample fluid flowing through a first application section of the fluid path to a first laser light generated by a first laser light source for a first holding time period such that a first optical light pressure is applied on sample particles entering the first application section resulting in a bunch of sample particles, which is released at the end of the first holding time period; c) Repeating step b) such that the fluid flow of the sample fluid leaving the first application section carries a first sequence of spaced bunches of sample particles; d) Exposing the sample fluid flowing through a detection section of the fluid path downstream to the first application section to an X-ray set of at least one X-ray pulse generated by an X-ray source; e) Repeating step d) to form a second sequence of spaced X-ray sets such that each of the spaced X-ray sets partly or fully intersects a different bunch (12, 32) of the bunches (12, 32) of sample particles carried by the sample fluid flowing through the detection section; and f) Detecting by means of an X-ray detector an X-ray radiation formed by the X-ray pulses of the second sequence of spaced X-ray sets modified by the bunches (12,32) of sample particles in step e).
An electromagnetic valve device comprising armature means which are formed so as to be moveable along an axial direction in a valve housing in response to an energization of stationary coil means provided in the valve housing and which are formed to interact with a first valve seat assigned to a fluid inlet connection of the valve housing, a first fluid flow path being formed in the valve housing in such a manner that fluid flowing through the opened first valve seat can flow in order to actuate plunger means which are provided preferably axially or axially parallel to the armature means and are moveable relative to said armature means and to which a preloading force is applied, and the actuation causing a second valve seat interacting with the plunger means to be opened so as to produce a fluid connection to a fluid working connection of the valve housing, and the valve housing having fastening means (44, 46) in the form of at least one hole extending at an angle, in particular transversely, to the axial direction, in particular a fastening bore, and the fluid inlet connection and the working connection, provided preferably adjacent thereto are formed on the same axial side of the valve housing in relation to the fastening means, characterized in that the armature means in the valve housing are assigned stationary core means axially opposite the first valve seat which, together with the armature means, delimit a ventilated working space, the ventilation being realized by a first ventilation path running on and/or in the core means, a second ventilation path running at least partially parallel to the axial direction in the valve housing, in particular in wall region of the valve housing, and by a connecting path formed at the end of the core means and/or of the valve housing and connecting the first and the second ventilation path, and the connecting path being implemented by means of a cap assembly and/or cover assembly which can be connected to an axial end of the valve housing.
Storage container of thermoplastic synthetic material in a motor vehicle for receiving an aqueous urea solution, comprising a container body which encloses a storage volume for the urea solution, a filling pipe for filling the storage volume as well as a filling and venting path to the atmosphere, wherein the filling pipe has a filling head at a remote end, the filling head forms a mouth hole nozzle, the mouth hole nozzle has a mouth hole for receiving a tapping valve and an external thread for receiving a complementary sleeve thread of a filling bottle for refueling by the gas displacement procedure or for receiving a closure cap, and wherein means for physical adsorption or for chemical adsorption or for physical and chemical adsorption of ammonia are provided in the in the filling and venting pipe or at the end of the in the filling and venting pipe, characterized in that a venting opening is provided in an upper bottom of the container body as the filling and venting path to which venting opening a filter is directly connected as means for the physical and/or chemical adsorption of ammonia.
An isolated polynucleotide encoding a hydroxylase which is capable of hydrolysing vitamin D3, vitamin D2 and 7 - dehydrocholesterol, selected from (a)-(c): (a) an isolated polynucleotide comprising nucleotides 320-1531 of SEQ ID NO: 1; (b) an isolated polynucleotide that hybridizes under stringent conditions to a polynucleotide entirely complementary to the hydroxylase gene (a), wherein said hybridization under stringent conditions is hybridization at 65°C in the presence of 0.7-1.0M sodium chloride; and (c) an isolated polynucleotide comprising a polynucleotide sequence having at least 90% nucleic acid sequence identity to the hydroxylase gene (a). (a) an isolated polynucleotide comprising nucleotides 320-1531 of SEQ ID NO: 1; (b) an isolated polynucleotide that hybridizes under stringent conditions to a polynucleotide entirely complementary to the hydroxylase gene (a), wherein said hybridization under stringent conditions is hybridization at 65°C in the presence of 0.7-1.0M sodium chloride; and (c) an isolated polynucleotide comprising a polynucleotide sequence having at least 90% nucleic acid sequence identity to the hydroxylase gene (a).
An information reception device, comprising: an imaging means; a light reception means for light reception of optional information subjected to optical modulation; a specification means for specifying an optical modulation region contained in a capture angle of the imaging means; a decoding means for controlling the light reception means in order to carry out light reception of the optical modulation region specified by the specification means and for decoding optional information from the optical modulation content contained in that region; and a reproduction means for reproducing the optional information decoded by the decoding means. an imaging means; a light reception means for light reception of optional information subjected to optical modulation; a specification means for specifying an optical modulation region contained in a capture angle of the imaging means; a decoding means for controlling the light reception means in order to carry out light reception of the optical modulation region specified by the specification means and for decoding optional information from the optical modulation content contained in that region; and a reproduction means for reproducing the optional information decoded by the decoding means.
Elevator system, comprising: an elongated suspension member (1A, 1B); a load-receiving part suspended on the suspension member (1A, 1B); a counterweight suspended on the suspension member (1A, 1B) for supporting the load-receiving part; two parallel elongated traction members (4A, 4B) for exerting a pulling force on the load-receiving part and on the counterweight, which two parallel elongated traction members (4A, 4B) are suspended on the load-receiving part and on the counterweight; a drive unit configured to drive the load-receiving part by pulling the aforementioned two parallel elongated traction members (4A, 4B); one or more guide rails, along the path of movement determined by which the load-receiving part is moved; wherein the aforementioned drive unit is disposed to the side of the path of movement of the aforementioned load-receiving part; and wherein the aforementioned two parallel traction members (4A, 4B) are suspended on the load-receiving part from suspension points (8A, 8B), which are disposed on opposite sides of the load-receiving part, above the floor level of the load-receiving part. an elongated suspension member (1A, 1B); a load-receiving part suspended on the suspension member (1A, 1B); a counterweight suspended on the suspension member (1A, 1B) for supporting the load-receiving part; two parallel elongated traction members (4A, 4B) for exerting a pulling force on the load-receiving part and on the counterweight, which two parallel elongated traction members (4A, 4B) are suspended on the load-receiving part and on the counterweight; a drive unit configured to drive the load-receiving part by pulling the aforementioned two parallel elongated traction members (4A, 4B); one or more guide rails, along the path of movement determined by which the load-receiving part is moved; wherein the aforementioned drive unit is disposed to the side of the path of movement of the aforementioned load-receiving part; and wherein the aforementioned two parallel traction members (4A, 4B) are suspended on the load-receiving part from suspension points (8A, 8B), which are disposed on opposite sides of the load-receiving part, above the floor level of the load-receiving part.
A method for deghosting marine seismic data to be carried out by a computer system that includes one or more processors (1602, 1603, 1604, 1605) and one or more data-storage devices, the method comprising machine-readable instruction directed to: computing vertical velocity wavefields associated with marine seismic receivers based on the reflectivity of a time-varying, rough free surface profile above the marine seismic receivers and for frequencies below a threshold frequency using pressure wavefields measured at the receivers; and computing receiver deghosted wavefields based on the measured pressure wavefields, vertical velocity wavefields measured at the receivers above the threshold frequency, and the computed vertical velocity wavefields. computing vertical velocity wavefields associated with marine seismic receivers based on the reflectivity of a time-varying, rough free surface profile above the marine seismic receivers and for frequencies below a threshold frequency using pressure wavefields measured at the receivers; and computing receiver deghosted wavefields based on the measured pressure wavefields, vertical velocity wavefields measured at the receivers above the threshold frequency, and the computed vertical velocity wavefields.
Fuel injector, having an injector housing in which an injection element for closing and opening up at least one injection opening formed in the injector housing is arranged so as to be capable of performing stroke movements, and having a sensor device for detecting at least the closing time of the injection element, wherein the sensor device has a sensor element which is in the form of a piezo element and which is arranged in a recess of the injector housing so as to be in abutting contact with the injector housing and which is designed to detect the closing time of the injection element on the basis of a body-borne sound signal, wherein the sensor element bears under axial preload against a contact surface, characterized in that the recess is arranged entirely within the injector housing, or in that the recess is arranged entirely within the injector housing with the exception of a further recess for receiving an electrical connection line for the sensor element.
Bistable mechanical device comprising a first elastic strip (5; 5'; 17; 24) and a second elastic strip (6; 6'; 18; 27), the bistable mechanical device being able to be in a rest state in which the first and second elastic strips are free of any deformation stress and in first and second stable operating states in which the first and second elastic strips each have a convexity, the convexity of each of the first and second elastic strips changing direction upon passing from one of the first and second stable operating states to the other, characterised in that each of the first and second elastic strips is preformed to already have a convexity in the rest state, the convexity of one of the first and second elastic strips changing direction upon passing from the rest state to one of the first and second stable operating states.
Process for desulfurizing olefin-containing starting materials by regulating the proportion of olefins, wherein • an olefin- and hydrogen-containing gaseous feed stream is passed through a reactor containing a hydrogenating catalyst for desulfurization (8b, 10b, 11b) and the organic sulfur compounds and olefins present in the olefin- and hydrogen-containing feed stream are entirely or partially hydrogenated to form hydrogen sulphide and alkanes, and • the olefin-containing feed stream is divided to give at least two feed streams (3, 4, 5) before introduction into the reactor, and • the first feed stream is conveyed, via suitable devices via the top of the reactor, through a catalyst bed in the reactor containing a partial amount of a catalyst for hydrogenative desulfurization, and • a second feed stream is introduced laterally downstream of the first catalyst bed into the reactor and introduced into the reaction mixture which has been heated by the first hydrogenation, and the resulting gas stream is passed through a second catalyst bed in the reactor, and • the proportion of the olefins in at least one feed stream is controllable by means of separate introduction of olefins or diluent gas into the individual feed streams, where the temperature in the reactor is regulated by regulating the proportion of olefins in at least one feed stream, characterized in that • a gas which contains a significant proportion of olefins having from 2 to 6 carbon atoms is used as a feed stream for the hydrogenative desulfurization, and • the hydrogenation reaction is carried out at a temperature of from 250 to 400°C. • an olefin- and hydrogen-containing gaseous feed stream is passed through a reactor containing a hydrogenating catalyst for desulfurization (8b, 10b, 11b) and the organic sulfur compounds and olefins present in the olefin- and hydrogen-containing feed stream are entirely or partially hydrogenated to form hydrogen sulphide and alkanes, and • the olefin-containing feed stream is divided to give at least two feed streams (3, 4, 5) before introduction into the reactor, and • the first feed stream is conveyed, via suitable devices via the top of the reactor, through a catalyst bed in the reactor containing a partial amount of a catalyst for hydrogenative desulfurization, and • a second feed stream is introduced laterally downstream of the first catalyst bed into the reactor and introduced into the reaction mixture which has been heated by the first hydrogenation, and the resulting gas stream is passed through a second catalyst bed in the reactor, and • the proportion of the olefins in at least one feed stream is controllable by means of separate introduction of olefins or diluent gas into the individual feed streams, where the temperature in the reactor is regulated by regulating the proportion of olefins in at least one feed stream, characterized in that • a gas which contains a significant proportion of olefins having from 2 to 6 carbon atoms is used as a feed stream for the hydrogenative desulfurization, and • the hydrogenation reaction is carried out at a temperature of from 250 to 400°C.