mhurhangee/patent-ind-claim-en huggingface dataset:
An abnormality diagnostic device for an oil jet control valve of an internal combustion engine, the abnormality diagnostic device comprising: an oil pump that is driven by rotation of an internal combustion engine ; an oil jet that injects oil toward a piston of the internal combustion engine ; an oil jet gallery that sends oil from the oil pump to the oil jet ; a control valve that is disposed at the oil jet gallery and controls flow of oil to the oil jet ; an oil pressure sensor that is provided upstream of the control valve in the oil jet gallery ; and a control unit that controls opening and closing of the control valve , wherein the control unit performs abnormality diagnosis control for determining an abnormality in the control valve , in a case where the internal combustion engine is in a fuel-cut operation state and a predetermined condition is satisfied, and in the abnormality diagnosis control, the control unit sets the control valve to an opened state, and sets the control valve to a closed state after a predetermined period of time elapses in which oil pressure of the oil jet gallery is stabilized, and determines that there is the abnormality in the control valve when a difference between oil pressure of the oil jet gallery at a time when the control valve is opened and oil pressure of the oil jet gallery at time when the control valve is closed after the predetermined period of time elapses is smaller than a predetermined difference. an oil pump that is driven by rotation of an internal combustion engine ; an oil jet that injects oil toward a piston of the internal combustion engine ; an oil jet gallery that sends oil from the oil pump to the oil jet ; a control valve that is disposed at the oil jet gallery and controls flow of oil to the oil jet ; an oil pressure sensor that is provided upstream of the control valve in the oil jet gallery ; and a control unit that controls opening and closing of the control valve , wherein the control unit performs abnormality diagnosis control for determining an abnormality in the control valve , in a case where the internal combustion engine is in a fuel-cut operation state and a predetermined condition is satisfied, and in the abnormality diagnosis control, the control unit sets the control valve to an opened state, and sets the control valve to a closed state after a predetermined period of time elapses in which oil pressure of the oil jet gallery is stabilized, and determines that there is the abnormality in the control valve when a difference between oil pressure of the oil jet gallery at a time when the control valve is opened and oil pressure of the oil jet gallery at time when the control valve is closed after the predetermined period of time elapses is smaller than a predetermined difference.
A humidification system comprising a respiratory circuit for delivering a gas to a patient and a humidifier portion for delivering a humidifying agent to the gas flowing through the respiratory circuit , comprising: a flow controller for flowing in a pulsed step a first amount of the humidifying agent at a controlled flow rate to the humidifier portion ; a humidifying agent input line for pulse delivering the first amount of the humidifying agent to a first volume of gas during a patient inhalation cycle or immediately after a patient exhalation cycle; a heated element of the humidifier portion for vaporizing the first amount of the humidifying agent and maintaining the first amount of the humidifying agent in a vapor state when the first amount of the humidifying agent is combined with the first volume of gas; and characterized by a controller configured for causing the flow controller and the humidifying agent input line to provide in a pulsed step, during a patient inhalation cycle or immediately after a patient exhalation cycle, the first amount of the humidifying agent to the first volume of gas, and to provide in a non-pulsed step, during a patient exhalation cycle or immediately after a patient inhalation cycle, a second amount of the humidifying agent less than the first amount of the humidifying agent to a second volume of gas to remove condensation from the respiratory circuit . a flow controller for flowing in a pulsed step a first amount of the humidifying agent at a controlled flow rate to the humidifier portion ; a humidifying agent input line for pulse delivering the first amount of the humidifying agent to a first volume of gas during a patient inhalation cycle or immediately after a patient exhalation cycle; a heated element of the humidifier portion for vaporizing the first amount of the humidifying agent and maintaining the first amount of the humidifying agent in a vapor state when the first amount of the humidifying agent is combined with the first volume of gas; and characterized by a controller configured for causing the flow controller and the humidifying agent input line to provide in a pulsed step, during a patient inhalation cycle or immediately after a patient exhalation cycle, the first amount of the humidifying agent to the first volume of gas, and to provide in a non-pulsed step, during a patient exhalation cycle or immediately after a patient inhalation cycle, a second amount of the humidifying agent less than the first amount of the humidifying agent to a second volume of gas to remove condensation from the respiratory circuit .
Inspection device for the optical inspection, more particularly deflectometric inspection, of an object , having a housing , wherein the housing is a hollow body with an opening , wherein the object is positionable in the opening for inspection purposes, having a main camera , wherein the main camera has a recording direction and a recording plane, wherein the main camera is arranged with the recording direction towards the opening of the housing , wherein the inspection device comprises a plurality of light sources , wherein the light sources are arranged around the opening , wherein the light sources are designed for variable illumination of the recording plane, wherein the main camera is designed to record a plurality of object images for the object located in the recording plane, having an evaluation unit , wherein the evaluation unit is designed to determine a topography of the object on the basis of the object images, characterized in that the housing has a cutout , wherein the cutout forms a feed-through and/or receptacle for a holder and/or handling device of the object , wherein the housing has an edge , wherein the edge forms the boundary of the housing with respect to the opening , wherein the light sources are arranged along the edge , wherein the light sources have an emission direction, wherein the emission direction of each light source includes a respective illumination angle with the recording direction, wherein the illumination angle of at least one of the light sources is adjustable. having a housing , wherein the housing is a hollow body with an opening , wherein the object is positionable in the opening for inspection purposes, having a main camera , wherein the main camera has a recording direction and a recording plane, wherein the main camera is arranged with the recording direction towards the opening of the housing , wherein the inspection device comprises a plurality of light sources , wherein the light sources are arranged around the opening , wherein the light sources are designed for variable illumination of the recording plane, wherein the main camera is designed to record a plurality of object images for the object located in the recording plane, having an evaluation unit , wherein the evaluation unit is designed to determine a topography of the object on the basis of the object images, characterized in that the housing has a cutout , wherein the cutout forms a feed-through and/or receptacle for a holder and/or handling device of the object , wherein the housing has an edge , wherein the edge forms the boundary of the housing with respect to the opening , wherein the light sources are arranged along the edge , wherein the light sources have an emission direction, wherein the emission direction of each light source includes a respective illumination angle with the recording direction, wherein the illumination angle of at least one of the light sources is adjustable.
An electrode slurry coating system, comprising: a supply tank ; a supply line having a control valve and branching into at least three sub-supply line s at one end thereof; an electrode slurry slot die having a manifold; a coating roller ; and a temperature sensor , wherein the supply tank is configured to supply an electrode slurry, wherein the supply line configured to receive the electrode slurry from the supply tank and provide the electrode slurry to the manifold of the electrode slurry slot die through the at least three sub-supply lines , wherein the at least three sub-supply lines are arranged with respect to a transverse direction (TD), wherein the center and sides of the manifold are arranged with respect to the TD, wherein the electrode slurry slot die is configured to discharge the electrode slurry supplied through the manifold to a current collector layer supported and transferred by the coating roller , wherein one or both sides of the current collector layer can be coated by the electrode slurry discharged from the electrode slurry slot die , characterized in that the temperature sensor is configured to measure the temperature of the electrode slurry discharged from the electrode slurry slot die , and in that the control valve is configured to control the flow rate of the electrode slurry in response to a temperature of the electrode slurry measured by the temperature sensor .
A sub-bandgap reference source circuit, comprising: a current mirror source arranged to supply a same current (Is 1 , Is 2 ) to a first branch comprising a first bipolar junction transistor, BJT, and a second branch comprising a second bipolar junction transistor, BJT, , wherein the first BJT has an emitter current density, which is lower than the emitter current density of the second BJT , wherein the first branch and the second branch are connected at a first node , a first voltage divider comprising a first resistance (R 1 , 310) and a second resistance (R 2 , 320) coupled in series, wherein the first resistance is coupled between a base terminal of the first BJT and a second node , wherein the second resistor is coupled to ground; a second voltage divider comprising a third resistance (R 3 , 340) and a fourth resistance (R 4 , 350) coupled in series, wherein the third resistance (R 3 , 340) is coupled between the second node and a base terminal of the second BJT , wherein the fourth resistance (R 4 , 350) is coupled to the first node ; a supply voltage rail coupled to the current mirror source ; a transistor having a first current terminal coupled to the supply voltage rail , a second current terminal coupled to the second node and a control terminal coupled to the second branch; an output terminal coupled to the second node ; and a bias resistance coupled between the first node and ground.. a current mirror source arranged to supply a same current (Is 1 , Is 2 ) to a first branch comprising a first bipolar junction transistor, BJT, and a second branch comprising a second bipolar junction transistor, BJT, , wherein the first BJT has an emitter current density, which is lower than the emitter current density of the second BJT , wherein the first branch and the second branch are connected at a first node , a first voltage divider comprising a first resistance (R 1 , 310) and a second resistance (R 2 , 320) coupled in series, wherein the first resistance is coupled between a base terminal of the first BJT and a second node , wherein the second resistor is coupled to ground; a second voltage divider comprising a third resistance (R 3 , 340) and a fourth resistance (R 4 , 350) coupled in series, wherein the third resistance (R 3 , 340) is coupled between the second node and a base terminal of the second BJT , wherein the fourth resistance (R 4 , 350) is coupled to the first node ; a supply voltage rail coupled to the current mirror source ; a transistor having a first current terminal coupled to the supply voltage rail , a second current terminal coupled to the second node and a control terminal coupled to the second branch; an output terminal coupled to the second node ; and a bias resistance coupled between the first node and ground..
A method of wireless communication by an access point, comprising: transmitting , to a set of stations, a trigger frame that indicates a set of resource units, RUs, for uplink transmission available to each station of the set of stations, wherein the trigger frame comprises a request for feedback regarding the set of RUs from each station; and receiving from each station a response frame over an uplink resource indicated in the transmitted trigger frame, wherein the response frame includes the feedback regarding the set of RUs and is received independent of a channel condition associated with the uplink resource. transmitting , to a set of stations, a trigger frame that indicates a set of resource units, RUs, for uplink transmission available to each station of the set of stations, wherein the trigger frame comprises a request for feedback regarding the set of RUs from each station; and receiving from each station a response frame over an uplink resource indicated in the transmitted trigger frame, wherein the response frame includes the feedback regarding the set of RUs and is received independent of a channel condition associated with the uplink resource.
A vulcanizable polymer composition comprising a) a polymer having an iodine value of lower than 400 g/100 g polymer, b) an organic peroxide having aromatic groups which is di(tert-butylperoxyisopropyl) benzene, c) a zeolite having a pore size of 3 to 6 Å and a filler, whereby the amount of zeolite is in the range of 0,1-20 parts per hundred parts of the polymer of the component a) and the amount of filler is in the range of 100 to 300 parts per hundred parts of the polymer of the component a) and the amount of organic peroxide is in the range of 0.1 - 10 parts per 100 parts of polymer a). a) a polymer having an iodine value of lower than 400 g/100 g polymer, b) an organic peroxide having aromatic groups which is di(tert-butylperoxyisopropyl) benzene, c) a zeolite having a pore size of 3 to 6 Å and whereby the amount of zeolite is in the range of 0,1-20 parts per hundred parts of the polymer of the component a) and the amount of filler is in the range of 100 to 300 parts per hundred parts of the polymer of the component a) and the amount of organic peroxide is in the range of 0.1 - 10 parts per 100 parts of polymer a).
A method for production of at least one tannic product and a bark product having enhanced fuel value comprising the steps of: (a) disintegrating bark to an average bark particle size of 1-200 mm; (b) compressing the disintegrated bark to recover a first liquid extract comprising tannic substances; (c) impregnating the compressed bark with a first aqueous impregnation composition during 10-120 minutes, at a pH below 7, and at temperature within the range of 45-80°C; (d) dewatering the impregnated bark to recover a second liquid extract comprising tannic substances and a dewatered bark product; (e) recirculating at least a part of the second liquid extract to the impregnation step, wherein the first aqueous impregnation composition comprises a mixture of said recirculated part of the second liquid extract and optionally fresh water; (f) optionally combining said first liquid extract with the non-recirculated part of said second liquid extract; and (g) adding a sulphite salt to said first liquid extract and to said non-recirculated part of said second liquid extract, or to the optionally combined first and second liquid extracts in a level of 1-25% by weight for providing a first tannic product and a second tannic product, or a combined tannic product. (a) disintegrating bark to an average bark particle size of 1-200 mm; (b) compressing the disintegrated bark to recover a first liquid extract comprising tannic substances; (c) impregnating the compressed bark with a first aqueous impregnation composition during 10-120 minutes, at a pH below 7, and at temperature within the range of 45-80°C; (d) dewatering the impregnated bark to recover a second liquid extract comprising tannic substances and a dewatered bark product; (e) recirculating at least a part of the second liquid extract to the impregnation step, wherein the first aqueous impregnation composition comprises a mixture of said recirculated part of the second liquid extract and optionally fresh water; (f) optionally combining said first liquid extract with the non-recirculated part of said second liquid extract; and (g) adding a sulphite salt to said first liquid extract and to said non-recirculated part of said second liquid extract, or to the optionally combined first and second liquid extracts in a level of 1-25% by weight for providing a first tannic product and a second tannic product, or a combined tannic product.
A head-up display, short "HUD", mounted on a vehicle, comprising: a direction-information generator to generate direction information to be virtually superimposed on a road surface ahead of the vehicle, the direction information representing a direction of travel to be followed by the vehicle; and a display system (10, 30, and 40) to display the direction information within the display area as a virtual image; characterised by a shift device configured to, when the direction information includes direction-change information that falls outside a display area, the direction-change information representing a change in the direction of travel, shift at least some of the direction-change information into the display area; and wherein the shift device is configured to control a shift direction of the direction-change information based on the direction of travel to be changed of the direction-change information and the shift direction includes an upward or downward component. a direction-information generator to generate direction information to be virtually superimposed on a road surface ahead of the vehicle, the direction information representing a direction of travel to be followed by the vehicle; and a display system (10, 30, and 40) to display the direction information within the display area as a virtual image; characterised by a shift device configured to, when the direction information includes direction-change information that falls outside a display area, the direction-change information representing a change in the direction of travel, shift at least some of the direction-change information into the display area; and wherein the shift device is configured to control a shift direction of the direction-change information based on the direction of travel to be changed of the direction-change information and the shift direction includes an upward or downward component.
A system , comprising: (a) an implantable electrical device adapted for mounting within the body of the patient; (b) an implantable power unit adapted for mounting within the body of the patient, the power unit having a receiving coil, a power circuit connected to the receiving coil so that power applied to the receiving coil can be transmitted to the implantable device; and (c) an external power supply having a transmitting coil adapted for transcutaneous inductive coupling with the receiving coil to define a system having a resonant frequency varying in relation to a distance between the transmitting and receiving coils, a drive circuit operable to apply an alternating current to the transmitting coil at a variable drive pulse width, wherein power is transmitted at a variable transmission frequency between the transmitting coil and the receiving coil, and a control circuit operable to: (i) monitor a parameter related to mutual inductance between the transmitting and receiving coils; and (ii) adjust the variable transmission frequency to a value having a predetermined difference from the resonant frequency to operate the control circuit using the monitored parameter so as to maintain the transmission frequency with a predetermined difference from the resonant frequency. (a) an implantable electrical device adapted for mounting within the body of the patient; (b) an implantable power unit adapted for mounting within the body of the patient, the power unit having a receiving coil, a power circuit connected to the receiving coil so that power applied to the receiving coil can be transmitted to the implantable device; and (c) an external power supply having a transmitting coil adapted for transcutaneous inductive coupling with the receiving coil to define a system having a resonant frequency varying in relation to a distance between the transmitting and receiving coils, a drive circuit operable to apply an alternating current to the transmitting coil at a variable drive pulse width, wherein power is transmitted at a variable transmission frequency between the transmitting coil and the receiving coil, and a control circuit operable to: (i) monitor a parameter related to mutual inductance between the transmitting and receiving coils; and (ii) adjust the variable transmission frequency to a value having a predetermined difference from the resonant frequency to operate the control circuit using the monitored parameter so as to maintain the transmission frequency with a predetermined difference from the resonant frequency. (i) monitor a parameter related to mutual inductance between the transmitting and receiving coils; and (ii) adjust the variable transmission frequency to a value having a predetermined difference from the resonant frequency to operate the control circuit using the monitored parameter so as to maintain the transmission frequency with a predetermined difference from the resonant frequency.
A tyre having an inner surface and at least one monitoring device adhering to said inner surface , wherein such monitoring device is made on a flexible support, the adhesion of said flexible support to said inner surface being achieved through a decoupling element interposed between said at least one monitoring device and said inner surface of the tyre , wherein said decoupling element is an acrylic double-sided adhesive tape, and characterised in that said acrylic double-sided adhesive tape is resistant to a dynamic shear stress higher than 50 kPa, measured according to ASTM D-1002. wherein said decoupling element is an acrylic double-sided adhesive tape, and characterised in that said acrylic double-sided adhesive tape is resistant to a dynamic shear stress higher than 50 kPa, measured according to ASTM D-1002.
A light emitting device (OEL), comprising: a first electrode (EL1); a second electrode (EL2) opposite to the first electrode (EL1); and a plurality of functional layers between the first electrode (EL1) and the second electrode (EL2), the plurality of functional layers comprising an emission layer (EML), wherein the emission layer (EML) comprises a manganese complex compound (HS) and a quantum dot (QD), wherein the emission layer (EML) comprises a host and a dopant, the host comprises the manganese complex compound (HS), and the dopant comprises the quantum dot (QD). a first electrode (EL1); a second electrode (EL2) opposite to the first electrode (EL1); and a plurality of functional layers between the first electrode (EL1) and the second electrode (EL2), the plurality of functional layers comprising an emission layer (EML), wherein the emission layer (EML) comprises a manganese complex compound (HS) and a quantum dot (QD), wherein the emission layer (EML) comprises a host and a dopant, the host comprises the manganese complex compound (HS), and the dopant comprises the quantum dot (QD).