mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method performed by one or more processors for automatically selecting an optimized acquisition plan, the method comprising the following operations: generating a simulated dense wavefield using a representative subsurface model that represents a portion of the earth, wherein the simulated dense wavefield represents a target dense wavefield; generating a set of preliminary acquisition plans according to acquisition plan constraints and the representative subsurface model, each preliminary acquisition plan defining a plurality of surface receivers operable to receive seismic signals; subsampling the target dense wavefield using the set of preliminary acquisition plans to produce a set of subsampled wavefields, each of the subsampled wavefields being associated with a particular preliminary acquisition plan; reconstructing the set of subsampled wavefields according to a reconstruction scheme to produce a set of reconstructed dense wavefields; determining a degree of fidelity for each of the reconstructed dense wavefields, and selecting a preliminary acquisition plan having the degree of fidelity that satisfies a preselected criterion as the optimized acquisition plan; the method characterised in that determining the degree of fidelity comprises, for each of the reconstructed dense wavefields, determining a mismatch between the reconstructed dense wavefield and the target dense wavefield based on a cross-correlation function. generating a simulated dense wavefield using a representative subsurface model that represents a portion of the earth, wherein the simulated dense wavefield represents a target dense wavefield; generating a set of preliminary acquisition plans according to acquisition plan constraints and the representative subsurface model, each preliminary acquisition plan defining a plurality of surface receivers operable to receive seismic signals; subsampling the target dense wavefield using the set of preliminary acquisition plans to produce a set of subsampled wavefields, each of the subsampled wavefields being associated with a particular preliminary acquisition plan; reconstructing the set of subsampled wavefields according to a reconstruction scheme to produce a set of reconstructed dense wavefields; determining a degree of fidelity for each of the reconstructed dense wavefields, and selecting a preliminary acquisition plan having the degree of fidelity that satisfies a preselected criterion as the optimized acquisition plan; the method characterised in that determining the degree of fidelity comprises, for each of the reconstructed dense wavefields, determining a mismatch between the reconstructed dense wavefield and the target dense wavefield based on a cross-correlation function.
A method of controlling the speed of a direct current electric powered pump using pulse width modulation of the voltage applied to the pump, characterised in that the speed of the pump is increased by increasing the ratio of the pulse width to the time period of one cycle of the pulse width modulation to a target ratio over a time interval (t) that is not dependent on the target ratio.
A method for manufacturing a medical tubular object, such as a catheter, for insertion into a body passageway, comprising the steps of: extruding a tube by pushing tube material though an extrusion nozzle; cutting the extruded tube at a predetermined length; and advancing an initial part of the extruded tube onto a tapered mandrel; wherein the tapered mandrel is arranged adjacent the extrusion nozzle such that a flared end is formed; and wherein after a predetermined length of the extruded tube has been advanced onto the tapered mandrel, the tapered mandrel is moved away from the extrusion nozzle to prevent that the rest of the extruded tube is expanded by the tapered mandrel. extruding a tube by pushing tube material though an extrusion nozzle; cutting the extruded tube at a predetermined length; and advancing an initial part of the extruded tube onto a tapered mandrel; wherein the tapered mandrel is arranged adjacent the extrusion nozzle such that a flared end is formed; and wherein after a predetermined length of the extruded tube has been advanced onto the tapered mandrel, the tapered mandrel is moved away from the extrusion nozzle to prevent that the rest of the extruded tube is expanded by the tapered mandrel.
An apparatus for the production of a composite frozen product in a container, the product being comprised of a frozen confection within an edible casing, wherein the apparatus comprises: o a forming element having an external surface corresponding to the internal shape of the container, the forming element being further characterised by a passage running through the forming element from an upper opening to a lower opening the apparatus further comprising o means for removing material from the passage of the forming element. o a forming element having an external surface corresponding to the internal shape of the container, the forming element being further characterised by a passage running through the forming element from an upper opening to a lower opening o means for removing material from the passage of the forming element.
An apparatus, comprising: an electrically insulating circuit board; at least one electrical path comprising at least one conductive trace attached to the circuit board, said at least one electrical path generating Joule energy responsive to electrical current through said at least one electrical path, wherein the at least one electrical path forms at least one thermal area; at least one electrophoresis capillary in thermal contact with said at least one thermal area, such that said at least one electrophoresis capillary is thermally regulated responsive to electrical current through said at least one electrical path; and a temperature controller configured to run current through the at least one electrical path. an electrically insulating circuit board; at least one electrical path comprising at least one conductive trace attached to the circuit board, said at least one electrical path generating Joule energy responsive to electrical current through said at least one electrical path, wherein the at least one electrical path forms at least one thermal area; at least one electrophoresis capillary in thermal contact with said at least one thermal area, such that said at least one electrophoresis capillary is thermally regulated responsive to electrical current through said at least one electrical path; and a temperature controller configured to run current through the at least one electrical path.
A method of operating a network device in connection with a cellular communication system, wherein the method comprises: - receiving a report including measurement information representing so-called UE-to-UE interference between a first UE and a second UE to enable interference-aware configuration of at least one transmission and/or interference suppression in the cellular communication system, wherein the measurement information is related to at least one measurement performed by the first UE of an uplink signal transmitted by the second UE; - estimating path loss between the first UE and the second UE at least partly based on the measurement information; and - initiating interference-aware configuration of said at least one transmission and/or interference suppression at least partly based on the estimated path loss. - receiving a report including measurement information representing so-called UE-to-UE interference between a first UE and a second UE to enable interference-aware configuration of at least one transmission and/or interference suppression in the cellular communication system, wherein the measurement information is related to at least one measurement performed by the first UE of an uplink signal transmitted by the second UE; - estimating path loss between the first UE and the second UE at least partly based on the measurement information; and - initiating interference-aware configuration of said at least one transmission and/or interference suppression at least partly based on the estimated path loss.
A ride assembly, comprising: a passenger vehicle comprising front wheels, rear wheels and a steering system; wherein the front and rear wheels are configured to travel over a surface; wherein the steering system is configured to adjust the rear wheels to enable the passenger vehicle to drift on the surface; a track forming a trough in the surface; a bogie (130, 132) hingedly coupled to the passenger vehicle, wherein the bogie (130, 132) is disposed in the trough and configured to direct movement of the passenger vehicle along the track, the track comprising a junction splitting the track into a first ride path of the track and a second ride path of the track; and, a probe mounted to the bogie (130, 132) and configured to selectively engage the first ride path or the second ride path to direct the passenger vehicle along the track. wherein the front and rear wheels are configured to travel over a surface; wherein the steering system is configured to adjust the rear wheels to enable the passenger vehicle to drift on the surface; a track forming a trough in the surface; a bogie (130, 132) hingedly coupled to the passenger vehicle, wherein the bogie (130, 132) is disposed in the trough and configured to direct movement of the passenger vehicle along the track, the track comprising a junction splitting the track into a first ride path of the track and a second ride path of the track; and, a probe mounted to the bogie (130, 132) and configured to selectively engage the first ride path or the second ride path to direct the passenger vehicle along the track.
Milling tool (1, 11, 111) for machining workpieces, comprising a main body designed as a rotational body, and comprising at least one smoothing blade (3a, 3b, 3c) and at least one roughing blade (4a, 4b), which are each designed so as to extend at least in part in the manner of a spiral around a rotational axis of the main body in a tool cutting region of the main body and which each have a flute (31a, 31b, 31c; 41a, 41b) in front thereof in the circumferential direction of the milling tool (1, 11, 111), wherein a diameter (42ad, 42bd) of a first circle of flight (42a, 42b) which is assigned to the roughing blade (4a, 4b) is larger than a diameter (32ad, 32bd, 32cd) of a second circle of flight (32a, 32b, 32c) which is assigned to the smoothing blade (3a, 3b, 3c), a clearance angle (43a, 43b) being arranged downstream of the roughing blade (4a, 4b) in the circumferential direction, characterised in that the smoothing blade (3a, 3b, 3c) is designed so as not to have a downstream clearance angle in the circumferential direction.
An arrangement for testing a control device by means of a test environment, comprising a computer-based test management tool, the test management tool being implemented for the model-based development and/or management of at least one test plan implemented as a data structure for testing the control device and the test plan comprising at least one test and a start condition for initiating the execution of the test plan, a computer-based test execution control tool having a test execution tool, the test execution control tool being implemented for initiating execution of the test plan on fulfillment of the start condition by means of the test execution tool on the test environment; a computer-based database, the database being implemented for storing the test plan implemented as a data structure and for shared, simultaneous access to the test plan by the test management tool and the test execution control tool and both the test management tool and the test execution control tool having direct access to the test plans stored in the database and accessing the respective same test plan stored in the database, and the test plans being managed and attributed in the test management tool to describe the applicability of the test plans, and the test execution control tool and the test management tool being disposed on computers (4, 5) that are spatially separate from each other and respectively independent of each other, and only the test execution tool being in direct communication with the test environment, not, however, the test execution control tool, and the test execution control tool being implemented to export test data obtained by the test environment from the control device tested by the test plan to the database, the test data already being exported during the implementation of the test plan.
A gases humidifier comprising: a gases inlet and an outlet, a removable humidification chamber cartridge with a heater source adapted to vaporize fluid, wherein the heater source is a heating element integrated in or forming part of the humidification chamber cartridge; and a metering arrangement adapted to connect to and transfer fluid from a fluid supply to the humidification chamber cartridge, a main housing comprising a base portion and an upright portion, wherein the humidification chamber cartridge is slidably locatable within the base portion, and wherein the base portion comprises power pins (137a to 137d) for connection to the humidification chamber cartridge. a gases inlet and an outlet, a removable humidification chamber cartridge with a heater source adapted to vaporize fluid, wherein the heater source is a heating element integrated in or forming part of the humidification chamber cartridge; and a metering arrangement adapted to connect to and transfer fluid from a fluid supply to the humidification chamber cartridge, a main housing comprising a base portion and an upright portion, wherein the humidification chamber cartridge is slidably locatable within the base portion, and wherein the base portion comprises power pins (137a to 137d) for connection to the humidification chamber cartridge.
A circuit breaker comprising: a housing; a stator accommodated in the housing and connected to a terminal unit; a mover selectively brought into contact with the stator; an opening and closing unit manipulating the mover such that the mover is selectively brought into contact with the stator; and an insulating cover provided in the housing and shielding the mover and the stator from the exterior of the housing, wherein the housing or the insulating cover is made by molding an electrical insulating material, and wherein the opening and closing unit comprises a first shaft connected to a power transmission unit; a link connected to the first shaft; a second shaft connected to the link; and a latch connected to the link by the second shaft; characterized in that: an extending surface is formed on a portion of the insulating cover, and a shaft insertion hole is formed in the extending surface to allow the second shaft to be inserted thereinto and movable therein; wherein latch insertion holes are formed in both sides of the insulating cover to allow the latch to be inserted thereinto and movable therein. a housing; a stator accommodated in the housing and connected to a terminal unit; a mover selectively brought into contact with the stator; an opening and closing unit manipulating the mover such that the mover is selectively brought into contact with the stator; and an insulating cover provided in the housing and shielding the mover and the stator from the exterior of the housing, wherein the housing or the insulating cover is made by molding an electrical insulating material, and wherein the opening and closing unit comprises a first shaft connected to a power transmission unit; a link connected to the first shaft; a second shaft connected to the link; and a latch connected to the link by the second shaft; an extending surface is formed on a portion of the insulating cover, and a shaft insertion hole is formed in the extending surface to allow the second shaft to be inserted thereinto and movable therein;
A method of testing an object to be examined, comprising: providing at least one set of acoustically detected time signals, each related to a propagation path from a common transmitter to a plurality of receivers, wherein the propagation path passes at least partially through the object and the transmitter is disposed spaced from the receivers; initializing a model of the object, the model comprising spatially variable elastic properties of the object; backprojecting and summing the time signals starting from the positions of the plurality of receivers into a virtual object based on the model; evaluating the backprojection; and adjusting the model of the object based on the evaluation of the backprojection, wherein the method is free of reference bodies, characterized in that evaluating the backprojection comprises comparing a position of the transmitter to a backprojected position of the transmitter which has been determined based on the backprojected time signals. providing at least one set of acoustically detected time signals, each related to a propagation path from a common transmitter to a plurality of receivers, wherein the propagation path passes at least partially through the object and the transmitter is disposed spaced from the receivers; initializing a model of the object, the model comprising spatially variable elastic properties of the object; backprojecting and summing the time signals starting from the positions of the plurality of receivers into a virtual object based on the model; evaluating the backprojection; and adjusting the model of the object based on the evaluation of the backprojection, wherein the method is free of reference bodies,
A system, comprising: a signal receiver circuit, configured to receive a physiologic signal obtained from a subject; a physiologic event detector circuit, configured to detect a target physiologic event using a first portion of the received physiologic signal, wherein the first portion includes a first data window of the received physiologic signal, and the second portion includes a second data window temporally located at a specified location within a latter half of the first data window; a data storage decision circuit, coupled to the signal receiver circuit and the physiologic event detector circuit, configured to: confirm the target physiologic event using a second portion of the received physiologic signal, the second portion including at least part of the first portion of the received physiologic signal; and generate a data storage trigger signal using the detection and the confirmation of the target physiologic event; and a controller circuit, coupled to the data storage decision circuit, configured to store in a memory, in response to the data storage trigger signal, physiologic information associated with the confirmed target physiologic event. a signal receiver circuit, configured to receive a physiologic signal obtained from a subject; a physiologic event detector circuit, configured to detect a target physiologic event using a first portion of the received physiologic signal, wherein the first portion includes a first data window of the received physiologic signal, and the second portion includes a second data window temporally located at a specified location within a latter half of the first data window; a data storage decision circuit, coupled to the signal receiver circuit and the physiologic event detector circuit, configured to: confirm the target physiologic event using a second portion of the received physiologic signal, the second portion including at least part of the first portion of the received physiologic signal; and generate a data storage trigger signal using the detection and the confirmation of the target physiologic event; and confirm the target physiologic event using a second portion of the received physiologic signal, the second portion including at least part of the first portion of the received physiologic signal; and generate a data storage trigger signal using the detection and the confirmation of the target physiologic event; and a controller circuit, coupled to the data storage decision circuit, configured to store in a memory, in response to the data storage trigger signal, physiologic information associated with the confirmed target physiologic event.
Device for maintaining voltage intended to be associated with a rotating electrical machine fulfilling a motor vehicle heat engine startup function, this device being arranged to supply, on startup of the heat engine, an additional voltage for an electrical power supply of the rotating electrical machine, this additional voltage being added to a nominal voltage of the onboard electrical network of the vehicle supplied by a battery included in the vehicle as main voltage source, the device comprising a second voltage source (Ucap) and first and second electronic switches (K1, K2) each comprising at least one transistor of MOSFET type, characterized in that at least one MOSFET transistor (K2, K2n') of the switches, mounted in series with the second voltage source (Ucap) is controlled in linear mode at the end of startup of the heat engine.
Method for two-way bracing of at least two lateral surfaces of an excavation pit, the method having the following steps: a first step, in which a set of bracing modules (4, 6, 21, 22, 23, 24) is prepared, among them a multiplicity of elongated bracing sections (21, 22, 23, 24), at least one longitudinally extensible tensioning module and a multiplicity of end attachment modules (6, 16), each bracing module (4, 6, 21, 22, 23, 24) having at least one mechanical coupling attachment (25, 26, 28, 40), which is connectible as desired to the respective coupling attachments (25, 26, 28, 40) of the other bracing modules (4, 6, 21, 22, 23, 24), a second step, in which at least one elongated bracing assembly is composed of bracing modules (4, 6, 21, 22, 23, 24) fixed together longitudinally, the bracing assembly consisting of at least one of the said bracing sections (21, 22, 23, 24) and a said tensioning module, and each end of the bracing assembly being provided with one of the said end attachment modules (6, 16), a third step, in which the bracing assembly is disposed between the at least two surfaces to be braced, and is tensioned against the surfaces through an extension of the tensioning module, the tensioning module being activated through a temporarily installed or inserted tensioning device, a fourth step, in which the tensioning module is locked in a tensioned state by means of a blocking configuration (42, 43, 44), a fifth step, in which the tensioning device is removed from the tensioning module in such a way that the tensioning module remains in its tensioned, locked state. a first step, in which a set of bracing modules (4, 6, 21, 22, 23, 24) is prepared, among them a multiplicity of elongated bracing sections (21, 22, 23, 24), at least one longitudinally extensible tensioning module and a multiplicity of end attachment modules (6, 16), each bracing module (4, 6, 21, 22, 23, 24) having at least one mechanical coupling attachment (25, 26, 28, 40), which is connectible as desired to the respective coupling attachments (25, 26, 28, 40) of the other bracing modules (4, 6, 21, 22, 23, 24), a second step, in which at least one elongated bracing assembly is composed of bracing modules (4, 6, 21, 22, 23, 24) fixed together longitudinally, the bracing assembly consisting of at least one of the said bracing sections (21, 22, 23, 24) and a said tensioning module, and each end of the bracing assembly being provided with one of the said end attachment modules (6, 16), a third step, in which the bracing assembly is disposed between the at least two surfaces to be braced, and is tensioned against the surfaces through an extension of the tensioning module, the tensioning module being activated through a temporarily installed or inserted tensioning device, a fourth step, in which the tensioning module is locked in a tensioned state by means of a blocking configuration (42, 43, 44), a fifth step, in which the tensioning device is removed from the tensioning module in such a way that the tensioning module remains in its tensioned, locked state.