mhurhangee/ep-ind-claims huggingface dataset:
A method for determining trace amounts of crude oil in water, the method comprising the steps of: collecting a sample of an oil-containing fluid, wherein the oil-containing fluid comprises an amount of crude oil and an aqueous fluid; adding a toluene extraction volume to the sample of the oil-containing fluid; perturbing the sample, wherein the toluene extraction volume contacts the oil-containing fluid; dissolving all of the amount of oil in the toluene extraction volume to create a mixed sample; extracting the mixed sample to create an oil-in-toluene layer and an aqueous fluid layer; separating the mixed sample in order to separate the oil-in-toluene layer and the aqueous fluid layer; removing a pre-defined portion of the oil-in-toluene layer into a dilution container; diluting the pre-defined portion of the oil-in-toluene layer with a toluene dilution volume to create a dilute sample; measuring an absorption value of the dilute sample using a spectrophotometer; and comparing the absorption value to a calibration curve to quantify the amount of oil in the oil-containing fluid; wherein the method for determining trace amounts of crude oil in an oil-containing fluid is in the absence of a fluid assist. collecting a sample of an oil-containing fluid, wherein the oil-containing fluid comprises an amount of crude oil and an aqueous fluid; adding a toluene extraction volume to the sample of the oil-containing fluid; perturbing the sample, wherein the toluene extraction volume contacts the oil-containing fluid; dissolving all of the amount of oil in the toluene extraction volume to create a mixed sample; extracting the mixed sample to create an oil-in-toluene layer and an aqueous fluid layer; separating the mixed sample in order to separate the oil-in-toluene layer and the aqueous fluid layer; removing a pre-defined portion of the oil-in-toluene layer into a dilution container; diluting the pre-defined portion of the oil-in-toluene layer with a toluene dilution volume to create a dilute sample; measuring an absorption value of the dilute sample using a spectrophotometer; and comparing the absorption value to a calibration curve to quantify the amount of oil in the oil-containing fluid; wherein the method for determining trace amounts of crude oil in an oil-containing fluid is in the absence of a fluid assist.
A system for determining the relative position of two or more points comprising: an inertial navigation system; and a computer based system communicatively coupled to said INS and configured to estimate position error states and position solutions for at least two INS positions, said system characterised in that said computer based system comprises: a Kalman filter comprising an error covariance matrix programmed to adjust estimates of the position error states based on correlations developed during a transition where said INS returns to a first INS position, point A, from one or more subsequent INS positions, wherein the INS is held stationary at point A, and wherein the kalman filter isconfigured to process inertial measurement data from the INS to produce real time estimates of position and velocity. an inertial navigation system; and a computer based system communicatively coupled to said INS and configured to estimate position error states and position solutions for at least two INS positions, said system characterised in that said computer based system comprises: a Kalman filter comprising an error covariance matrix programmed to adjust estimates of the position error states based on correlations developed during a transition where said INS returns to a first INS position, point A, from one or more subsequent INS positions, wherein the INS is held stationary at point A, and wherein the kalman filter isconfigured to process inertial measurement data from the INS to produce real time estimates of position and velocity.
A medical ultrasound imaging system comprising: an interface in communication with an ultrasound imaging component and configured to receive a first image representative of blood vessels of a brain of a patient while the ultrasound imaging component is positioned at a first imaging position with respect to the patient; characterized in that the system further comprises a processing component in communication with the interface and configured to apply a convolutional network, CNN, to the first image to produce a motion control configuration for repositioning the ultrasound imaging component from the first imaging position to a second imaging position associated with a transcranial examination, the CNN trained based on at least a known blood vessel topography. an interface in communication with an ultrasound imaging component and configured to receive a first image representative of blood vessels of a brain of a patient while the ultrasound imaging component is positioned at a first imaging position with respect to the patient; characterized in that the system further comprises a processing component in communication with the interface and configured to apply a convolutional network, CNN, to the first image to produce a motion control configuration for repositioning the ultrasound imaging component from the first imaging position to a second imaging position associated with a transcranial examination, the CNN trained based on at least a known blood vessel topography.
A method of activating (fig.1) a wireless connection in a space comprising equipment for maintaining an industrial system, the space comprises an access door detecting in detecting means an opening of the access door providing an access to the space, characterized by the method comprising switching on a short-range or medium-range wireless communication network in response to the detection of the opening of the access door, detecting a mobile device provided within the range of the active wireless communication network, and connecting the mobile device to the active wireless communication network in response to the switching-on of the wireless communication network and the detection of the mobile device within the range of the active wireless communication network. detecting in detecting means an opening of the access door providing an access to the space, characterized by the method comprising switching on a short-range or medium-range wireless communication network in response to the detection of the opening of the access door, detecting a mobile device provided within the range of the active wireless communication network, and connecting the mobile device to the active wireless communication network in response to the switching-on of the wireless communication network and the detection of the mobile device within the range of the active wireless communication network.
Method for treating textile articles in a laundry washing machine, the washing machine comprising an inner volume wherein said articles are contained, movimentation means configured to move said articles within said volume and steaming means configured to generate steam to be delivered within said volume for preventing or reducing the bacterial growth on said articles, the method comprising the steps of: a) performing a heating phase, during which: - said movimentation means are switched on at least most of the time and - said steaming means are switched on at least most of the time; b) performing a cooling phase, during which: - said movimentation means are continuously or intermittently switched on and - said steaming means are switched off at least most of the time; c) repeating at least once steps a) and b), wherein at the beginning of the method a washing phase takes place and wherein said articles are wet during steps a) to c). a) performing a heating phase, during which: - said movimentation means are switched on at least most of the time and - said steaming means are switched on at least most of the time; - said movimentation means are switched on at least most of the time and - said steaming means are switched on at least most of the time; b) performing a cooling phase, during which: - said movimentation means are continuously or intermittently switched on and - said steaming means are switched off at least most of the time; - said movimentation means are continuously or intermittently switched on and - said steaming means are switched off at least most of the time; c) repeating at least once steps a) and b),
An agitator for a liquid analysis system, the agitator comprising: a liquid sample chamber for containing a liquid, an agitation chamber linked by a liquid passageway to the liquid sample chamber, a gas inlet linked by a gas passageway to the agitation chamber, a reciprocating member mounted for contact with liquid and gas in the agitation chamber, characterized in that the agitator further comprises a drive means adapted to reciprocate the reciprocating member with a displacement force to mix incoming gas from the gas inlet and liquid from the liquid sample chamber in the agitation chamber and to push the mixture back to the liquid sample chamber, via said liquid passageway, and the capacity of the liquid sample chamber is in the range of 1ml to 251. a liquid sample chamber for containing a liquid, an agitation chamber linked by a liquid passageway to the liquid sample chamber, a gas inlet linked by a gas passageway to the agitation chamber, a reciprocating member mounted for contact with liquid and gas in the agitation chamber, characterized in that the agitator further comprises a drive means adapted to reciprocate the reciprocating member with a displacement force to mix incoming gas from the gas inlet and liquid from the liquid sample chamber in the agitation chamber and to push the mixture back to the liquid sample chamber, via said liquid passageway, and the capacity of the liquid sample chamber is in the range of 1ml to 251.
Charging system configured for providing electrical energy to charge a battery of an electrical vehicle with a charging current I c, whereby the charging system has a nominal current I N, comprising an overcurrent protection device for interrupting an electrical connection, which interrupts the electrical connection at breaking current I b, whereby I b ≥ I N, an electrically controlled switch for interrupting or establishing an electrical connection, wherein the maximum current that can be switched by the electrically controlled switch is maximum switching current I max, and a control device in electrical connection with at least the electrically controlled switch, whereby the charging system comprising the electrical vehicle and a charging device configured for charging the electrical vehicle, whereby the charging device comprises the overcurrent protection device, the electrically controlled switch and the control device, the electrically controlled switch and the overcurrent protection device are connected in series between power converters connected to the charging device and a DC cable and arranged in the current path of the charging current I c, and characterized in that the control device is configured for switching off the electrically controlled switch at a time t > 0 after the overcurrent protection device has switched off due to the charging current I c has exceeded the breaking current I b. an overcurrent protection device for interrupting an electrical connection, which interrupts the electrical connection at breaking current I b, whereby I b ≥ I N, an electrically controlled switch for interrupting or establishing an electrical connection, wherein the maximum current that can be switched by the electrically controlled switch is maximum switching current I max, and a control device in electrical connection with at least the electrically controlled switch, whereby the charging system comprising the electrical vehicle and a charging device configured for charging the electrical vehicle, whereby the charging device comprises the overcurrent protection device, the electrically controlled switch and the control device, the electrically controlled switch and the overcurrent protection device are connected in series between power converters connected to the charging device and a DC cable and arranged in the current path of the charging current I c, and characterized in that the control device is configured for switching off the electrically controlled switch at a time t > 0 after the overcurrent protection device has switched off due to the charging current I c has exceeded the breaking current I b.
An apparatus for determining material performance of a material system comprising: a chamber configured to control one or more of humidity, pressure, or temperature; a jaw disposed in the chamber to support the material system and configured to flex the material system; an outer enclosure disposed within the chamber, the enclosure comprising an insulating material; a motor or actuator disposed within the outer enclosure and configured to operate the jaw; an inlet tube coupled with the outer enclosure at a first end and a first wall of the chamber at a second end; and an outlet tube coupled with the outer enclosure at a first end and the first wall or a second wall of the chamber at a second end; characterized by further comprising a first gas source and a second gas source, and wherein the outer enclosure includes an insulating plate coupled with the motor or actuator, the first gas source providing gas to a first portion of the motor or actuator and the second gas source being disposed along a surface of said insulating plate to provide gas to a second portion of the motor or actuator by introducing gas through a recess disposed in a surface of the outer enclosure, the gas of the first gas source and second gas source being supplied by said inlet tube. a chamber configured to control one or more of humidity, pressure, or temperature; a jaw disposed in the chamber to support the material system and configured to flex the material system; an outer enclosure disposed within the chamber, the enclosure comprising an insulating material; a motor or actuator disposed within the outer enclosure and configured to operate the jaw; an inlet tube coupled with the outer enclosure at a first end and a first wall of the chamber at a second end; and an outlet tube coupled with the outer enclosure at a first end and the first wall or a second wall of the chamber at a second end; characterized by further comprising a first gas source and a second gas source, and wherein the outer enclosure includes an insulating plate coupled with the motor or actuator, the first gas source providing gas to a first portion of the motor or actuator and the second gas source being disposed along a surface of said insulating plate to provide gas to a second portion of the motor or actuator by introducing gas through a recess disposed in a surface of the outer enclosure, the gas of the first gas source and second gas source being supplied by said inlet tube.
An isolated T cell receptor having antigenic specificity for a mutated epitope presented in the context of an HLA-A11 molecule, the mutated epitope comprising VVVGADGVGK (SEQ ID NO: 2), wherein the TCR comprises an α chain CDR 1 comprising the amino acid sequence of SEQ ID NO: 149, an α chain CDR2 comprising the amino acid sequence of SEQ ID NO: 150, an α chain CDR3 comprising the amino acid sequence of SEQ ID NO: 151, a β chain CDR1 comprising the amino acid sequence of SEQ ID NO: 152, a β chain CDR2 comprising the amino acid sequence of SEQ ID NO: 153, and a β chain CDR3 comprising the amino acid sequence of SEQ ID NO: 154.
An electrical equipment housing (10, 100, 110), comprising: a first storage room containing a power converter converting electrical power; and an air conditioner (14, 15) adjusting a temperature inside the first storage room, the air conditioner (14, 15) including an indoor unit (21, 23) and an outdoor unit (22, 24), the indoor unit (21, 23) being provided inside the first storage room, the outdoor unit (22, 24) being provided outside the first storage room; characterized in that the electrical equipment housing (10, 100, 110) further comprises: a second storage room containing the outdoor unit (22, 24); a temperature sensor sensing a temperature inside the second storage room; and a heater heating inside the second storage room when the temperature sensed by the temperature sensor is a lower limit or less. a first storage room containing a power converter converting electrical power; and an air conditioner (14, 15) adjusting a temperature inside the first storage room, the air conditioner (14, 15) including an indoor unit (21, 23) and an outdoor unit (22, 24), the indoor unit (21, 23) being provided inside the first storage room, the outdoor unit (22, 24) being provided outside the first storage room; characterized in that the electrical equipment housing (10, 100, 110) further comprises: a second storage room containing the outdoor unit (22, 24); a temperature sensor sensing a temperature inside the second storage room; and a heater heating inside the second storage room when the temperature sensed by the temperature sensor is a lower limit or less. a second storage room containing the outdoor unit (22, 24); a temperature sensor sensing a temperature inside the second storage room; and a heater heating inside the second storage room when the temperature sensed by the temperature sensor is a lower limit or less.
A method for producing a halogenated organic pigment, the method comprising a halogenation step of halogenating an organic pigment with halogenating agent, wherein the halogenation step is performed in the presence of a solvent comprising a strong acid, the halogenating agent comprises one or more N-haloimide compounds selected from the group consisting of trichloroisocyanuric acid, a metal salt of dichloroisocyanuric acid, tribromoisocyanuric acid, and a metal salt of dibromoisocyanuric acid, and the organic pigment comprises at least one selected from the group consisting of a quinacridone pigment, a phthalocyanine pigment, an anthraquinone pigment, a quinophtalone pigment, a perylene pigment which is C. I. Pigment Red 178, an isoindolinone pigment, a dioxazine pigment and an indanthrone pigment.
A power generation system comprising: an engine including an engine main body, a radiator configured to perform heat exchange of cooling water flowing inside the engine main body, and a fan configured to cool the radiator; a power generator configured to convert torque acquired in the engine main body into electricity; a load testing device that includes a plurality of resistors and that is used to perform a loading test of the power generator; and characterized in that: a switching device configured to perform at least one of changing a position of the load testing device and changing a flow channel of cooling air from the fan, in order to deviate the load testing device from the flow channel or to place the load testing device in the flow channel and on a downstream side of the radiator in the loading test; wherein an outlet of the flow channel includes a first outlet not facing the load testing device and a second outlet facing the load testing device, and the switching device includes a flow channel switching plate configured to shield one of the first outlet and the second outlet and which is configured to open the other in order to change the flow channel. an engine including an engine main body, a radiator configured to perform heat exchange of cooling water flowing inside the engine main body, and a fan configured to cool the radiator; a power generator configured to convert torque acquired in the engine main body into electricity; a load testing device that includes a plurality of resistors and that is used to perform a loading test of the power generator; a switching device configured to perform at least one of changing a position of the load testing device and changing a flow channel of cooling air from the fan, in order to deviate the load testing device from the flow channel or to place the load testing device in the flow channel and on a downstream side of the radiator in the loading test; wherein an outlet of the flow channel includes a first outlet not facing the load testing device and a second outlet facing the load testing device, and the switching device includes a flow channel switching plate configured to shield one of the first outlet and the second outlet and which is configured to open the other in order to change the flow channel.
An air-cooling drop pill production line comprising a drop pill system, an air-cooling circulation system and a control system, wherein the drop pill system comprises a molten material tank and a dripper connected thereto, and a vibration apparatus being arranged between the molten material tank and the dripper, the vibration apparatus being adapted to drive the dripper to vibrate up and down and a generated vibration shear force cuts liquor flowing out from the dripper into drops, the air-cooling circulation system being adapted to form drop pills when the drops fall into the air-cooling circulation system and are cooled, characterized in that an online monitoring apparatus being arranged on the dripper and comprising a pulse signal emission mechanism with an emission frequency which is the same as a vibration frequency of the vibration apparatus, the control system being adapted to control and regulate a dropping parameter according to a monitoring result of the online monitoring apparatus, and the online monitoring apparatus is arranged on a lower side face of the dripper; and the pulse signal emission mechanism is a stroboscopic lamp with the emission frequency which is the same as the vibration frequency of the vibration apparatus.
A package structure of a compound semiconductor device, comprising: a thin film substrate including a first conductive film (31"), a second conductive film and an insulating dielectric material, wherein the insulating dielectric material is between the first conductive film (31") and the second conductive film; a compound semiconductor photoelectric die mounted on a surface of the first conductive film (31"); a transparent encapsulation material overlaying the first conductive film (31"), the second conductive film, and the compound semiconductor photoelectric die; and at least one metal wire electrically connecting the compound semiconductor photoelectric die and the thin film substrate; wherein the first conductive film (31") further comprises a die-bonding groove into which the compound semiconductor photoelectric die is mounted, characterised in that, a reflecting layer is overlaid on the die-bonding groove, the first conductive film (31") further comprises a first wire-bonding groove for bonding the at least one metal wire, and the second conductive film further comprises a second wire-bonding groove for bonding the at least one metal wire. a thin film substrate including a first conductive film (31"), a second conductive film and an insulating dielectric material, wherein the insulating dielectric material is between the first conductive film (31") and the second conductive film; a compound semiconductor photoelectric die mounted on a surface of the first conductive film (31"); a transparent encapsulation material overlaying the first conductive film (31"), the second conductive film, and the compound semiconductor photoelectric die; and at least one metal wire electrically connecting the compound semiconductor photoelectric die and the thin film substrate; wherein the first conductive film (31") further comprises a die-bonding groove into which the compound semiconductor photoelectric die is mounted, characterised in that, a reflecting layer is overlaid on the die-bonding groove, the first conductive film (31") further comprises a first wire-bonding groove for bonding the at least one metal wire, and the second conductive film further comprises a second wire-bonding groove for bonding the at least one metal wire.