mhurhangee/ep-ind-claims huggingface dataset:
A method for measuring regurgitant flow from multiple or slit orifices comprising: identifying a first orifice location of regurgitant flow; acquiring ultrasonic echo signals in the vicinity of the first orifice location; processing the echo signals to determine a vector velocity field of regurgitant flow through the first orifice location; identifying a second orifice location of regurgitant flow; acquiring ultrasonic echo signals in the vicinity of the second orifice location; processing the echo signals to determine a vector velocity field of regurgitant flow through the second orifice location; and vectorially combining the vector velocity fields of regurgitant flow through the two orifice locations to thereby define a single combined vector velocity field. identifying a first orifice location of regurgitant flow; acquiring ultrasonic echo signals in the vicinity of the first orifice location; processing the echo signals to determine a vector velocity field of regurgitant flow through the first orifice location; identifying a second orifice location of regurgitant flow; acquiring ultrasonic echo signals in the vicinity of the second orifice location; processing the echo signals to determine a vector velocity field of regurgitant flow through the second orifice location; and vectorially combining the vector velocity fields of regurgitant flow through the two orifice locations to thereby define a single combined vector velocity field.
A method comprising: providing an optical component having one or more damage sites, wherein each of the one or more damage sites is characterized by a pit with material missing from a surface of the optical component; focusing a laser beam from a laser at a location within a first damage site, from among the one or more damage sites, the laser beam being characterized by an output power and a beam diameter at any instant in time, the laser beam being directed through an optical window in a nozzle and focused to a desired spot and size by the laser; setting the output power of the laser beam to a first output power; heating an area of the optical component at the location to a first temperature using the laser beam at the first output power; using the nozzle to receive a precursor gas, and to provide the precursor gas coaxial to the laser beam, at the location; and depositing a first predetermined amount of material only at the area heated by the laser beam so as to at least partially fill the first damage site with the first predetermined amount of material. providing an optical component having one or more damage sites, wherein each of the one or more damage sites is characterized by a pit with material missing from a surface of the optical component; focusing a laser beam from a laser at a location within a first damage site, from among the one or more damage sites, the laser beam being characterized by an output power and a beam diameter at any instant in time, the laser beam being directed through an optical window in a nozzle and focused to a desired spot and size by the laser; setting the output power of the laser beam to a first output power; heating an area of the optical component at the location to a first temperature using the laser beam at the first output power; using the nozzle to receive a precursor gas, and to provide the precursor gas coaxial to the laser beam, at the location; and depositing a first predetermined amount of material only at the area heated by the laser beam so as to at least partially fill the first damage site with the first predetermined amount of material.
Decentralized room ventilation system comprising: at least one external-wall-mounted device having a blower system; and an installation device having an adapter plate adapted to be inserted into a profile frame of a window front in place of a glass pane and having an external air opening and an exhaust opening, the external-wall-mounted device being adapted to be detachably attached to the adapter plate such that it is in fluid communication with the external air opening and the exhaust opening, characterized in that the external air opening and the exhaust opening are each adapted to be closed by a flap (50, 56), and each of the flaps (50, 56) has an electromotive drive.
A process for preparation of 1-alkyl-5-benzoyl-1H-tetrazole derivative represented by formula: in formula, A represents a halogen atom, alkyl group, haloalkyl group, alkoxy group, haloalkoxy group, alkyl sulfonyl group, optionally substituted aryl group, cyano group or nitro group; n represents an integer of 0 to 5 when n is 2 or more, plural A may be the same or different from each other; Y represents an alkyl group; comprising: a step 1 of reacting a ketoamide derivative represented by formula: in formula, A, n and Y are as defined above; with a halogenating agent to obtain an imidoyl halide derivative represented by formula: in formula, A, n and Y are as defined above; X represents a halogen atom; and a step 2 of reacting the imidoyl halide derivative represented by formula with an azide represented by formula: M(N 3) in formula, M represents an alkali metal or alkali earth metal; m represents 1 or 2; to obtain a 1-alkyl-5-benzoyl-1H-tetrazole derivative represented by formula. a step 1 of reacting a ketoamide derivative represented by formula: in formula, A, n and Y are as defined above; with a halogenating agent to obtain an imidoyl halide derivative represented by formula: in formula, A, n and Y are as defined above; X represents a halogen atom; and a step 2 of reacting the imidoyl halide derivative represented by formula with an azide represented by formula: M(N 3) in formula, M represents an alkali metal or alkali earth metal; m represents 1 or 2; to obtain a 1-alkyl-5-benzoyl-1H-tetrazole derivative represented by formula.
A power feeding device, comprising: a power feeder that wirelessly feeds power to one of a plurality of power receivers (6, 6', 6a, 6b), a transceiver that communicates with the plurality of power receivers, and a controller that, when the transceiver receives a plurality of signals from two or more of the plurality of power receivers, causes the power feeder to suspend the feeding of power to the one of the plurality of power receivers for a predetermined period, characterized in that the controller sets the predetermined period that is different from another predetermined period set for another power feeding device. a power feeder that wirelessly feeds power to one of a plurality of power receivers (6, 6', 6a, 6b), a transceiver that communicates with the plurality of power receivers, and a controller that, when the transceiver receives a plurality of signals from two or more of the plurality of power receivers, causes the power feeder to suspend the feeding of power to the one of the plurality of power receivers for a predetermined period, characterized in that the controller sets the predetermined period that is different from another predetermined period set for another power feeding device.
Vehicle with a high-voltage storage device, which has a housing in which at least one battery module is arranged, which has several battery cells electrically connected to each other via a cell contacting system, wherein the battery cells each have a battery cell housing with an emergency degassing opening that opens at a predetermined internal cell pressure, through which hot or burning gas can escape from the interior of the battery cell housing into the housing of the high-voltage storage device in the event of a malfunction or damage to individual battery cells, wherein the emergency degassing openings face the cell contacting system, characterized in that the cell contacting system is provided with a heat protection layer, in particular with a heat protection coating layer, at least in those areas where the emergency degassing openings are arranged.
Composition in the divided solid form comprising hemipotassium phosphate having a P 2 O 5 content of between 59.0 and 60.8% by weight and at least one alkaline additive, said at least one alkaline additive or, when there are several of these, each of them being a water-soluble chemical compound, a 1% by weight solution of which has a pH of greater than 7, characterized in that it exhibits an acidifying power of at least 3.5 mol of H + /kg and, when it is sheltered from ambient moisture, a flowability index of less than 25 and a caking index of less than 50; and in that the content of alkaline additive is from 0.5% to 4% by weight with respect to the total composition.
A coupling device of an external handle to a lock, comprising a rotatable element for translatingly displacing a coupling element of the external handle to the lock, said rotatable element having a first permanent magnetic pole and a second permanent magnetic pole which are of opposite polarity and destined to selectively face a third permanent magnetic pole present in said coupling element in order to subject said coupling element to a magnetic displacement force in an opposite direction between a coupling position and a decoupling position of said external handle from said lock, said rotatable element being activated by an electric motor, wherein said first magnetic pole belongs to a first permanent magnet, said second permanent magnetic pole belongs to a second permanent magnet, and said third permanent magnetic pole belongs to a third permanent magnet, wherein said rotatable element has a rotation axis which is coaxial to the rotation axis of the output shaft of said electric motor by which it is directly activated to rotate, the coupling device further comprising a fourth permanent magnet having the same magnetic axis as the magnetic axis of said third permanent magnet and an opposite direction thereto, destined to selectively face said first permanent magnet and respectively said second permanent magnet, when said second permanent magnet and respectively said first permanent magnet face said third permanent magnet for stabilizing said coupling position, the coupling device being characterized in that said fourth permanent magnet is provided in a fixed position relative to the electric motor.
A method comprising: accessing, at a first time instant, image capture parameters of a plurality of component cameras (210, 212, 214, 216), said image capture parameters comprise one or more of the following: white balance, focus, or exposure, wherein image capture parameters for a respective component camera of the plurality of component cameras (210, 212, 214, 216) are determined based on a scene appearing in a field of view of the respective component camera; determining, at a second time instant, if there is a change in appearance of one or more objects of the scene from a field of view of a first component camera of the plurality of component cameras (210, 212, 214, 216) to a field of view of a second component camera of the plurality of component cameras (210, 212, 214, 216), wherein the one or more objects appear in the field of view of the first component camera at the first time instant and the one or more objects appear in the field of view of the second component camera at the second time instant, wherein the change in appearance of the one or more object is due to a relative movement between the plurality of component cameras (210, 212, 214, 216) and the one or more objects of the scene; and upon determining the change in the appearance of the one or more objects at the second time instant, setting image capture parameters of the second component camera based on image capture parameters of the first component camera accessed at the first time instant. accessing, at a first time instant, image capture parameters of a plurality of component cameras (210, 212, 214, 216), said image capture parameters comprise one or more of the following: white balance, focus, or exposure, wherein image capture parameters for a respective component camera of the plurality of component cameras (210, 212, 214, 216) are determined based on a scene appearing in a field of view of the respective component camera; determining, at a second time instant, if there is a change in appearance of one or more objects of the scene from a field of view of a first component camera of the plurality of component cameras (210, 212, 214, 216) to a field of view of a second component camera of the plurality of component cameras (210, 212, 214, 216), wherein the one or more objects appear in the field of view of the first component camera at the first time instant and the one or more objects appear in the field of view of the second component camera at the second time instant, wherein the change in appearance of the one or more object is due to a relative movement between the plurality of component cameras (210, 212, 214, 216) and the one or more objects of the scene; and upon determining the change in the appearance of the one or more objects at the second time instant, setting image capture parameters of the second component camera based on image capture parameters of the first component camera accessed at the first time instant.
A method for automatically developing detection rules, the method performed in a computing system that includes a processor, data storage, and input/output devices including a network interface device, the method comprising: (a) obtaining, by the computing system, incoming data directed to a destination; (b) detecting, by the computing system, any indicia of phishing that may be present in the incoming data, the detecting being performed by application of a plurality of phishing detection rules; (c) computationally determining, by the computing system, a quantitative score for each of a plurality of predefined parameters, each of the parameters relating to at least one of the phishing indicia, and each quantitative score representing a likelihood of a presence of phishing content in the incoming data for the at least one of the phishing indicia; (d) assessing, by the computing system, a requirement for evolving a phishing detection rule by applying a predefined set of rule evolution criteria to a combination of the determined quantitative scores of a plurality of parameters; (e) in response to an assessment of the requirement for evolving a phishing detection rule, generating, by the computing system, a new phishing detection rule based on selected parameter scores meeting the rule evolution criteria and on corresponding content of the phishing indicia relating to those selected parameter scores; by the computing system, recursively performing (b)-(e) based on any new phishing detection rules having been evolved in (e); identifying, by the computing system, any phishing-related objects based on selected parameter scores exceeding a phishing detection threshold and on corresponding content of the phishing indicia relating to those selected parameter scores; modifying, by the computing system, content relating to the phishing-related objects in the incoming data to remove or reduce maliciousness of the phishing-related objects. (a) obtaining, by the computing system, incoming data directed to a destination; (b) detecting, by the computing system, any indicia of phishing that may be present in the incoming data, the detecting being performed by application of a plurality of phishing detection rules; (c) computationally determining, by the computing system, a quantitative score for each of a plurality of predefined parameters, each of the parameters relating to at least one of the phishing indicia, and each quantitative score representing a likelihood of a presence of phishing content in the incoming data for the at least one of the phishing indicia; (d) assessing, by the computing system, a requirement for evolving a phishing detection rule by applying a predefined set of rule evolution criteria to a combination of the determined quantitative scores of a plurality of parameters; (e) in response to an assessment of the requirement for evolving a phishing detection rule, generating, by the computing system, a new phishing detection rule based on selected parameter scores meeting the rule evolution criteria and on corresponding content of the phishing indicia relating to those selected parameter scores;
A method for controlling a robot cleaner, the method comprising: a first operation of storing information on cleaning while a manual cleaner moved by a user is cleaning, wherein the manual cleaner is a cordless cleaner and a UWB module is installed in the manual cleaner; a second operation of transmitting the information stored in the first operation to the robot cleaner, wherein coordinate values are recorded by a UWB module equipped in a charging station of the robot cleaner while the manual cleaner moves while performing the cleaning, wherein a starting coordinate value to be recorded is a coordinate value of a charging station where the manual cleaner is charged or the starting coordinate value is a coordinate value of the charging station of the robot cleaner; and a third operation of performing, by the robot cleaner, cleaning based on the information. a first operation of storing information on cleaning while a manual cleaner moved by a user is cleaning, wherein the manual cleaner is a cordless cleaner and a UWB module is installed in the manual cleaner; a second operation of transmitting the information stored in the first operation to the robot cleaner, wherein coordinate values are recorded by a UWB module equipped in a charging station of the robot cleaner while the manual cleaner moves while performing the cleaning, wherein a starting coordinate value to be recorded is a coordinate value of a charging station where the manual cleaner is charged or the starting coordinate value is a coordinate value of the charging station of the robot cleaner; and a third operation of performing, by the robot cleaner, cleaning based on the information.
A vacuum chuck assembly, comprising: a support body having a support surface; a plurality of protrusions formed on the support surface, the protrusions projecting from the support; a plurality of channels formed on the support surface; at least one support member comprising a hollow shaft, supporting the support body; and at least one resilient member coupled with the hollow shaft, wherein the at least one resilient member provides control force to pull the support body downwards when the support body bows upwards as a result of heating, wherein a lower surface of the support body has one or more slots (610, 612, 614) for engaging one or more support pins, wherein the one or more support pins provide an upward force against the support body when the resilient member provides control force to pull the support body downwards thereby reducing warping of the support body. a support body having a support surface; a plurality of protrusions formed on the support surface, the protrusions projecting from the support; a plurality of channels formed on the support surface; at least one support member comprising a hollow shaft, supporting the support body; and at least one resilient member coupled with the hollow shaft, wherein the at least one resilient member provides control force to pull the support body downwards when the support body bows upwards as a result of heating, wherein a lower surface of the support body has one or more slots (610, 612, 614) for engaging one or more support pins, wherein the one or more support pins provide an upward force against the support body when the resilient member provides control force to pull the support body downwards thereby reducing warping of the support body.
Resistive particle sensor for detecting soot in the exhaust gas of an internal combustion engine, comprising a sensor element with two conductor tracks (25, 26), running at a distance from one another in a region of the sensor element that can be exposed to the exhaust gas, for resistively detecting a quantity of particles, the conductor tracks (25, 26) being connected to one another via a capacitance (30, 31) and the conductor tracks (25, 26) running parallel to one another in meanders (252, 262) in the region of the sensor element that can be exposed to the exhaust gas, the conductor tracks (25, 26) being branch-free conductor tracks (25, 26) which each start from a contact area (251, 261), which is arranged outside the region that can be exposed to the exhaust gas, for making contact with the sensor element, lead from the contact area (251, 261) to the region of the sensor element that can be exposed to the exhaust gas, run in meanders (252, 262) there and subsequently again lead out of the region that can be exposed to the exhaust gas to a further contact area (256, 266) for making contact with the sensor element, and the conductor tracks (25, 26) being connected to one another by means of the two further contact areas (256, 266) via the capacitance (30, 31) and the value of the capacitance (30, 31) being 50-800 pF (picofarads) and the capacitance (30, 31) being a capacitor which is arranged in a housing of the particle sensor, separately from the sensor element.
Spark plug having • a housing, • an insulator which is arranged within the housing, wherein the insulator has a longitudinal axis, an insulator foot, an insulator body and an insulator head and also an insulator seat which forms a transition from the insulator foot to the insulator body, • a centre electrode which is arranged within the insulator, • an earth electrode which is arranged on a combustion chamber-facing end side of the housing, wherein the earth electrode and the centre electrode are arranged such that the two electrodes form a spark gap, wherein the housing, on its inner side, has a housing seat on which the insulator, by way of its insulator seat, rests, wherein an inner seal is arranged between the housing seat and the insulator seat, so that the inner seal, the housing seat and the insulator seat form a sealing system, wherein the insulator seat has at least one step which has a first section and second sections, wherein the first section and the second sections are at an angle γ of greater than 0° in relation to one another and the first section is parallel to the insulator longitudinal axis, wherein the inner seal bears against this first section, so that a radial sealing face is formed on the insulator, characterized in that the inner seal projects beyond the insulator seat, so that a secondary sealing face is formed on the insulator foot. • a housing, • an insulator which is arranged within the housing, wherein the insulator has a longitudinal axis, an insulator foot, an insulator body and an insulator head and also an insulator seat which forms a transition from the insulator foot to the insulator body, • a centre electrode which is arranged within the insulator, • an earth electrode which is arranged on a combustion chamber-facing end side of the housing, wherein the earth electrode and the centre electrode are arranged such that the two electrodes form a spark gap, wherein the housing, on its inner side, has a housing seat on which the insulator, by way of its insulator seat, rests, wherein an inner seal is arranged between the housing seat and the insulator seat, so that the inner seal, the housing seat and the insulator seat form a sealing system, wherein the insulator seat has at least one step which has a first section and second sections, wherein the first section and the second sections are at an angle γ of greater than 0° in relation to one another and the first section is parallel to the insulator longitudinal axis, wherein the inner seal bears against this first section, so that a radial sealing face is formed on the insulator, characterized in that the inner seal projects beyond the insulator seat, so that a secondary sealing face is formed on the insulator foot.