mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method comprising: receiving a geological feature search query identifying one or more geological features and specifying one or more constraints associated with one or more geological features, wherein the one or more constraints include geological attributes comprising a depth below a mudline; executing, based on receiving the geological feature search query, a search of a database storing a plurality of seismic data images, wherein executing the search comprises searching the seismic data images and images from a volume model or a basin model, and wherein the seismic data images are labeled with the one or more geological features present in each of the plurality of seismic data images as part of a machine learning process; determining, based on executing the search, search results, wherein the search results identify one more of the plurality of seismic data images having the one or more geological features identified in the geological feature search query; and ranking the search results based on a value representing the degree to which the seismic data image includes the geological features defined in the search query; and outputting the search results for use in oil and gas exploration. receiving a geological feature search query identifying one or more geological features and specifying one or more constraints associated with one or more geological features, wherein the one or more constraints include geological attributes comprising a depth below a mudline; executing, based on receiving the geological feature search query, a search of a database storing a plurality of seismic data images, wherein executing the search comprises searching the seismic data images and images from a volume model or a basin model, and wherein the seismic data images are labeled with the one or more geological features present in each of the plurality of seismic data images as part of a machine learning process; determining, based on executing the search, search results, wherein the search results identify one more of the plurality of seismic data images having the one or more geological features identified in the geological feature search query; and ranking the search results based on a value representing the degree to which the seismic data image includes the geological features defined in the search query; and outputting the search results for use in oil and gas exploration.
An electronic expansion valve, comprising a valve needle and screw rod assembly, the valve needle and screw rod assembly comprising a valve needle, a valve needle sleeve, a washer portion, a spring and a screw rod assembly; wherein the valve needle is fixedly connected to the valve needle sleeve, the valve needle sleeve comprises a peripheral wall portion and a fitting portion, and an inner diameter of the fitting portion is smaller than an inner diameter of the peripheral wall portion; the screw rod assembly comprises a lower stop portion, a valve needle support portion and an upper stop portion, and the lower stop portion is configured to abut against the washer portion, characterised in that the valve needle support portion is configured to abut against the fitting portion of the valve needle sleeve; the upper stop portion is configured to abut against the spring; and in a case that the lower stop portion abuts against the washer portion, a distance between the valve needle support portion and the washer portion is D1, a distance between the valve needle support portion and an upper end of the fitting portion is D2, and D1≥D2. the valve needle is fixedly connected to the valve needle sleeve, the valve needle sleeve comprises a peripheral wall portion and a fitting portion, and an inner diameter of the fitting portion is smaller than an inner diameter of the peripheral wall portion; the screw rod assembly comprises a lower stop portion, a valve needle support portion and an upper stop portion, and the lower stop portion is configured to abut against the washer portion, characterised in that the valve needle support portion is configured to abut against the fitting portion of the valve needle sleeve; the upper stop portion is configured to abut against the spring; and in a case that the lower stop portion abuts against the washer portion, a distance between the valve needle support portion and the washer portion is D1, a distance between the valve needle support portion and an upper end of the fitting portion is D2, and D1≥D2.
A self-cleaning surface system, comprising: - rotatable bodies; - a support structure supporting the rotatable bodies, wherein the rotatable bodies are configured to rotate with respect to the support structure about a corresponding rotation axis, said rotatable bodies having a corresponding cleanable surface which is parallel to the corresponding rotation axis and being configured to rotate together with the corresponding rotatable body, from facing a first direction to facing a second direction and vice versa, the first direction being opposite to the second direction; - a rotation mechanism that is configured to rotate the rotatable bodies; - a cleaning mechanism comprising a cleaning fluid ejection mechanism; and - an activation mechanism configured to activate the cleaning fluid ejection mechanism when each cleanable surface faces the second direction, wherein the cleaning fluid ejection mechanism when activated is arranged to eject a cleaning fluid towards said one or more cleanable surfaces when the latter face the second direction; wherein, - the rotatable bodies are arranged adjacent to each other, wherein along a geometrical cross section of each rotatable body, said geometrical cross section being incident and perpendicular to the cleanable surfaces, and characterised in that the rotatable bodies comprise recesses configured to permit the cleanable surfaces of each rotatable body, when the rotatable bodies rotate, to at least partially fit in or pass through the recesses of the adjacent rotatable bodies. - rotatable bodies; - a support structure supporting the rotatable bodies, wherein the rotatable bodies are configured to rotate with respect to the support structure about a corresponding rotation axis, said rotatable bodies having a corresponding cleanable surface which is parallel to the corresponding rotation axis and being configured to rotate together with the corresponding rotatable body, from facing a first direction to facing a second direction and vice versa, the first direction being opposite to the second direction; - a rotation mechanism that is configured to rotate the rotatable bodies; - a cleaning mechanism comprising a cleaning fluid ejection mechanism; and - an activation mechanism configured to activate the cleaning fluid ejection mechanism when each cleanable surface faces the second direction, wherein the cleaning fluid ejection mechanism when activated is arranged to eject a cleaning fluid towards said one or more cleanable surfaces when the latter face the second direction; wherein, - the rotatable bodies are arranged adjacent to each other, wherein along a geometrical cross section of each rotatable body, said geometrical cross section being incident and perpendicular to the cleanable surfaces, and characterised in that the rotatable bodies comprise recesses configured to permit the cleanable surfaces of each rotatable body, when the rotatable bodies rotate, to at least partially fit in or pass through the recesses of the adjacent rotatable bodies.
A dimerisation domain of SWAP-70 with a length up to 100 amino acid residues containing the sequence or a sequence with 70 %, preferably 80 % sequence identity with SEQ ID no. 1 or a partial sequence with at least 50, preferably at least 70, preferably at least 80 amino acid residues.
Method for the addition of at least one substance to a liquid, such as in particular a drinking liquid, in a vessel using a capsule, which contains the at least one substance and is provided with at least one penetrable or removable seal (5, 5'), and a manipulating element for the capsule, wherein, after its at least one seal (5, 5') has been penetrated or removed, the capsule is inserted completely into the vessel containing the liquid in order to dispense the at least one substance contained therein, characterized in that, during the release of the at least one substance, the capsule is moved and positioned within the vessel by means of the manipulating element through a vessel wall by virtue of the capsule and the manipulating element, which are correspondingly designed for this, being brought into magnetic operative connection with one another.
Electrochemical device, comprising a stack of a plurality of electrochemical units that succeed one another along a stacking direction and each comprise an electrochemically active membrane electrode assembly, at least one gas diffusion layer (112, 114) and a bipolar plate having at least one flow field (124, 126) for at least one fluid medium, wherein at least one bipolar plate has at least one edge web (132, 148), which borders a flow field (124, 126) of the bipolar plate at least in certain areas and is in contact with a gas diffusion layer (112, 114) adjacent to the bipolar plate, wherein the electrochemical device further comprises flow field seal elements (142, 150) that each seal off the flow field (124, 126) bordered by one of the edge webs (132, 148) and are in contact with the respective edge web (132, 148) and in contact with one of the gas diffusion layers (112, 114), wherein two bipolar plates (108a, 108b) that succeed one another in the stacking direction are provided on mutually facing sides with a respective edge web (132, 148) that is in contact with a respective flow field seal element (142, 150), wherein the flow field seal elements (142, 150) with which the edge webs (132, 148) of the bipolar plates (108a, 108b) are in contact abut against one another in sealing manner, and wherein the two bipolar plates (108a, 108b) that succeed one another in the stacking direction are configured substantially identically with one another but are arranged rotated by an angle of 180° to one another about an axis of rotation that is parallel to the stacking direction, characterized in that the flow field seal elements (142, 150) are connected to the respective edge web (132, 148) in a substance-to-substance bond and are connected to the respective gas diffusion layer (112, 114) in a substance-to-substance bond.
An optical mixer (300, 400) comprising: a compound parabolic reflector with an input surface that receives light from a light source, and a lightguide coupled to the compound parabolic reflector, wherein a least one wall of the lightguide is substantially orthogonal to an exit surface of the compound parabolic reflector; wherein: a height of the walls of the lightguide is at least as large as 0.75 times a width of the input surface of the compound parabolic reflector, and is less than three times the width of the input surface; and at least a portion of the light received at the input surface of the compound parabolic reflector is reflected by the compound parabolic reflector, into and through the lightguide, to be emitted from an exit surface of the optical mixer, characterized in that the height of the compound parabolic reflector is between 0.15 and 0.40 times the width of the input surface of the compound parabolic reflector. a compound parabolic reflector with an input surface that receives light from a light source, and a lightguide coupled to the compound parabolic reflector, wherein a least one wall of the lightguide is substantially orthogonal to an exit surface of the compound parabolic reflector; wherein: a height of the walls of the lightguide is at least as large as 0.75 times a width of the input surface of the compound parabolic reflector, and is less than three times the width of the input surface; and at least a portion of the light received at the input surface of the compound parabolic reflector is reflected by the compound parabolic reflector, into and through the lightguide, to be emitted from an exit surface of the optical mixer, characterized in that the height of the compound parabolic reflector is between 0.15 and 0.40 times the width of the input surface of the compound parabolic reflector. a height of the walls of the lightguide is at least as large as 0.75 times a width of the input surface of the compound parabolic reflector, and is less than three times the width of the input surface; and at least a portion of the light received at the input surface of the compound parabolic reflector is reflected by the compound parabolic reflector, into and through the lightguide, to be emitted from an exit surface of the optical mixer, characterized in that the height of the compound parabolic reflector is between 0.15 and 0.40 times the width of the input surface of the compound parabolic reflector.
A radiotherapy device comprising: a radiation source configured to apply radiation to a subject; a sensor configured to: measure geometric information for a defined volume (204, 400) of the subject during a radiotherapy treatment, the geometric information indicating a movement of the defined volume and/or a change in shape of the defined volume; and transmit the geometric information to a controller; and the controller configured to: receive the geometric information from the sensor; update the defined volume based on the geometric information to determine an updated defined volume; determine an overlap between the updated defined volume of the subject and a volume enclosed by an isodose surface (302, 402); and instruct the radiation source to halt application of the radiation based on the determined overlap. a radiation source configured to apply radiation to a subject; a sensor configured to: measure geometric information for a defined volume (204, 400) of the subject during a radiotherapy treatment, the geometric information indicating a movement of the defined volume and/or a change in shape of the defined volume; and transmit the geometric information to a controller; and measure geometric information for a defined volume (204, 400) of the subject during a radiotherapy treatment, the geometric information indicating a movement of the defined volume and/or a change in shape of the defined volume; and transmit the geometric information to a controller; and the controller configured to: receive the geometric information from the sensor; update the defined volume based on the geometric information to determine an updated defined volume; determine an overlap between the updated defined volume of the subject and a volume enclosed by an isodose surface (302, 402); and instruct the radiation source to halt application of the radiation based on the determined overlap. receive the geometric information from the sensor; update the defined volume based on the geometric information to determine an updated defined volume; determine an overlap between the updated defined volume of the subject and a volume enclosed by an isodose surface (302, 402); and instruct the radiation source to halt application of the radiation based on the determined overlap.
A dental adhesive material kit comprising: a dental aqueous adhesive composition; and a multi-part type dental nonaqueous curable composition, wherein the dental aqueous adhesive composition contains a polymerizable monomer (a) having an acidic group, an aliphatic polymerizable monomer (b) having no acidic group, water (c), and an amine-based reducing agent containing no sulfur atom, and the multi-part type dental nonaqueous curable composition contains an aliphatic polymerizable monomer (b) having no acidic group, an aromatic polymerizable monomer (e) having no acidic group, a powdery water-soluble reducing compound (f) containing a sulfur atom, an organic peroxide (g), and an amine-based reducing agent containing no sulfur atom. a dental aqueous adhesive composition; and a multi-part type dental nonaqueous curable composition, wherein the dental aqueous adhesive composition contains a polymerizable monomer (a) having an acidic group, an aliphatic polymerizable monomer (b) having no acidic group, water (c), and an amine-based reducing agent containing no sulfur atom, and the multi-part type dental nonaqueous curable composition contains an aliphatic polymerizable monomer (b) having no acidic group, an aromatic polymerizable monomer (e) having no acidic group, a powdery water-soluble reducing compound (f) containing a sulfur atom, an organic peroxide (g), and an amine-based reducing agent containing no sulfur atom.
A system comprising: a processing facility configured to process an audio signal presented to a cochlear implant patient; and a control facility communicatively coupled to the processing facility and configured to direct a cochlear implant to apply electrical stimulation representative of the audio signal to the cochlear implant patient by directing the cochlear implant to concurrently apply a first biphasic stimulation pulse by way of a first electrode and a second biphasic stimulation pulse by way of a second electrode during a first time slot, and directing the cochlear implant to concurrently apply a third biphasic stimulation pulse by way of the second electrode and a fourth biphasic stimulation pulse by way of a third electrode during a second time slot that immediately follows the first time slot; wherein the third and fourth biphasic stimulation pulses are flipped in phase compared to the first and second biphasic stimulation pulses. a processing facility configured to process an audio signal presented to a cochlear implant patient; and a control facility communicatively coupled to the processing facility and configured to direct a cochlear implant to apply electrical stimulation representative of the audio signal to the cochlear implant patient by directing the cochlear implant to concurrently apply a first biphasic stimulation pulse by way of a first electrode and a second biphasic stimulation pulse by way of a second electrode during a first time slot, and directing the cochlear implant to concurrently apply a third biphasic stimulation pulse by way of the second electrode and a fourth biphasic stimulation pulse by way of a third electrode during a second time slot that immediately follows the first time slot; directing the cochlear implant to concurrently apply a first biphasic stimulation pulse by way of a first electrode and a second biphasic stimulation pulse by way of a second electrode during a first time slot, and directing the cochlear implant to concurrently apply a third biphasic stimulation pulse by way of the second electrode and a fourth biphasic stimulation pulse by way of a third electrode during a second time slot that immediately follows the first time slot; wherein the third and fourth biphasic stimulation pulses are flipped in phase compared to the first and second biphasic stimulation pulses.
A method for configuring indication devices (112, 216, 226) to provide transportation service, the method comprising: receiving, by at least one processor, a first transportation request including a first passenger pick-up point located in a preset geographical area, the first transportation request matching a first vehicle (110, 214, 224) associated with a first indication device (112, 216, 226); receiving, by the at least one processor, a second transportation request including a second passenger pick-up point located in the preset geographical area, the second transportation request matching a second vehicle (110, 214, 224) associated with a second indication device (112, 216, 226); determining, by the at least one processor, a time difference between a first estimated time for the first vehicle (110, 214, 224) to arrive in the preset geographical area and a second estimated time for the second vehicle (110, 214, 224) to arrive in the preset geographical area; and sending, by the at least one processor, first indication information to the first indication device (112, 216, 226) and second indication information to the second indication device (112, 216, 226) according to the time difference. receiving, by at least one processor, a first transportation request including a first passenger pick-up point located in a preset geographical area, the first transportation request matching a first vehicle (110, 214, 224) associated with a first indication device (112, 216, 226); receiving, by the at least one processor, a second transportation request including a second passenger pick-up point located in the preset geographical area, the second transportation request matching a second vehicle (110, 214, 224) associated with a second indication device (112, 216, 226); determining, by the at least one processor, a time difference between a first estimated time for the first vehicle (110, 214, 224) to arrive in the preset geographical area and a second estimated time for the second vehicle (110, 214, 224) to arrive in the preset geographical area; and sending, by the at least one processor, first indication information to the first indication device (112, 216, 226) and second indication information to the second indication device (112, 216, 226) according to the time difference.
A fuel control system for a gas turbine engine of an aircraft comprising: - an engine having a gearbox and a combustion chamber, - a fuel tank for containing fuel, - a high pressure fuel pump to pump fuel from the fuel tank towards the combustion chamber, and - a fuel pressure sensor placed to sense the pressure of the pumped fuel, characterized in that the system further comprises - at least one electrically controlled fuel injector to inject a flow rate of the pumped fuel into the combustion chamber, - a fuel temperature sensor placed to sense the temperature of the pumped fuel, and - a fuel controller electrically coupled with the fuel pressure and temperature sensors (11, 12) to calculate the fuel density according to the sensed values, - wherein the fuel controller is electrically coupled with the at least one fuel injector to determine the fuel flow injection rate, - wherein the fuel controller is adapted to calculate the quantity of the injected fuel, according to the fuel density and the fuel flow injection rate, - wherein the fuel controller is electrically coupled with the fuel pump to establish a pump output pressure value, according to the quantity of the injected fuel, such that a constant fuel pressure value is supplied to the at least one fuel injector in order to inject a constant fuel injection pressure into the combustion chamber, and - wherein the fuel controller is further adapted to regulate the fuel flow injection rate of the at least one fuel injector for supplying the at least one fuel injector with a constant fuel pressure value. - an engine having a gearbox and a combustion chamber, - a fuel tank for containing fuel, - a high pressure fuel pump to pump fuel from the fuel tank towards the combustion chamber, and - a fuel pressure sensor placed to sense the pressure of the pumped fuel, - at least one electrically controlled fuel injector to inject a flow rate of the pumped fuel into the combustion chamber, - a fuel temperature sensor placed to sense the temperature of the pumped fuel, and - a fuel controller electrically coupled with the fuel pressure and temperature sensors (11, 12) to calculate the fuel density according to the sensed values, - wherein the fuel controller is electrically coupled with the at least one fuel injector to determine the fuel flow injection rate, - wherein the fuel controller is adapted to calculate the quantity of the injected fuel, according to the fuel density and the fuel flow injection rate, - wherein the fuel controller is electrically coupled with the fuel pump to establish a pump output pressure value, according to the quantity of the injected fuel, such that a constant fuel pressure value is supplied to the at least one fuel injector in order to inject a constant fuel injection pressure into the combustion chamber, and - wherein the fuel controller is further adapted to regulate the fuel flow injection rate of the at least one fuel injector for supplying the at least one fuel injector with a constant fuel pressure value.