mhurhangee/ep-ind-claims huggingface dataset:
Method for reducing flicker in motion video captured of a scene using an image sensor, said method comprising: exposing the image sensor to light from the scene, selecting a specific row in the image sensor based on a random value, wherein the selected row is not a row previously selected during capturing of a currently captured image frame, initiating an exposure period for the selected row in response to the selecting of the row, reading out image data from the selected row of the image sensor when the exposure period for the selected row has ended, repeating the steps of selecting, initiating an exposure period, and reading out image data for all rows being part of the currently captured image frame, composing an image frame from the read out rows of the captured image frame by positioning the read out rows of the captured image frame at positions in the composed image frame corresponding to the position they represented in the image sensor when captured by the image sensor, and outputting the composed image frame. exposing the image sensor to light from the scene, selecting a specific row in the image sensor based on a random value, wherein the selected row is not a row previously selected during capturing of a currently captured image frame, initiating an exposure period for the selected row in response to the selecting of the row, reading out image data from the selected row of the image sensor when the exposure period for the selected row has ended, repeating the steps of selecting, initiating an exposure period, and reading out image data for all rows being part of the currently captured image frame, composing an image frame from the read out rows of the captured image frame by positioning the read out rows of the captured image frame at positions in the composed image frame corresponding to the position they represented in the image sensor when captured by the image sensor, and outputting the composed image frame.
A method of estimating an upper airway resistance of a patient during a delivery of a flow of breathing gas to the patient through a patient circuit (56, 58) of a gas delivery system and a superimposed oscillatory pressure on the flow of breathing gas during an expiratory phase of the patient, wherein the method is characterized by the steps of: determining a first amplitude of an oscillatory component of a gas pressure provided to the patient at an end of the expiratory phase; determining a second amplitude of an oscillatory component of a gas flow provided to the patient at the end of the expiratory phase; determining a first resistance value based on a ratio of the first amplitude to the second amplitude; and determining an upper airway resistance value based on the first resistance value. determining a first amplitude of an oscillatory component of a gas pressure provided to the patient at an end of the expiratory phase; determining a second amplitude of an oscillatory component of a gas flow provided to the patient at the end of the expiratory phase; determining a first resistance value based on a ratio of the first amplitude to the second amplitude; and determining an upper airway resistance value based on the first resistance value.
A method of manufacturing a cellular sinter mould body comprising the production steps a) preparing a thermoplastically flowable moulding material as a fine powder and/or granulate; b) incorporating expansion agent and foaming the moulding material by means of the expansion agent; c) solidifying and sintering the moulding material to manufacture the mould body, characterised in that swellable microspheres are used exclusively or inter alia as the expansion agent; and in that the foaming takes place at temperatures between 130°C and 200°C. a) preparing a thermoplastically flowable moulding material as a fine powder and/or granulate; b) incorporating expansion agent and foaming the moulding material by means of the expansion agent; c) solidifying and sintering the moulding material to manufacture the mould body,
Armoured glazing comprising a plurality of sheets (40, 42, 44; 60, 62, 64) and laminating layers (41, 43), at least one laminating layer being arranged between two each successive sheets to form a ballistic laminate having an edge periphery of the sheets and laminating layers, and a stepped edge (49; 69) configured at a periphery of the armoured glazing and comprising a projection (48; 68) for engaging the armoured glazing in a frame or door frame, wherein at least one of the sheets (40, 42, 44; 60, 62, 64) of the laminate consists of sintered AlON, and wherein a frame (47; 67) is provided which extends continuously along at least part of the periphery of the armoured glazing, the frame (47; 67) being attached to a edge periphery of a ballistic sheet or of the ballistic laminate, covering the whole edge periphery of the ballistic laminate, and consisting of sintered AlON, wherein the frame (47; 67) and the projection (48; 68) are configured in one piece.
Movement device for a cooling liquid, comprising, disposed along a common axis: - a drive assembly, provided with at least a drive body and a support structure of said drive body; - a movement member for moving said cooling liquid, drivable by said drive assembly; - a cooling unit configured to cool the drive assembly and disposed along said axis, intermediate between said drive assembly and said movement member; wherein said support structure comprises one or more upper and/or lateral air inlet apertures (29a, 29b, 29c) made in an upper portion of the support structure and one or more lateral or lower air outlet apertures, made in a lower portion of the support structure, close to the cooling unit, to define overall one or more passageways of cooling air through said support structure and in direct contact with said drive body, wherein said cooling unit comprises a suction device, disposed at said one or more air outlet apertures and configured to cause the suction of air through said drive assembly along said one or more passageways from said one or more air inlet apertures (29a, 29b, 29c) toward said one or more air outlet apertures, wherein said cooling unit comprises a lower containing flange which contains said suction device, said containing flange being provided with a peripheral edge that covers, in a direction radial to the axis, said air outlet apertures of said support structure, said containing flange being provided with an internal seating, facing toward said one or more air outlet apertures, said suction device being positioned in said internal seating and wherein said suction device comprises a rotating suction member configured to direct the air taken in diagonally downward toward the containing flange and toward the air outlet apertures; wherein said containing flange is configured to obtain a lateral and lower barrier for the support structure, protecting the drive assembly from humidity rising from below or laterally; wherein, when seen in a direction radial to the axis, said containing flange overlaps the lower portion of the support structure, defining an exit channel of an annular shape that connects the air outlet apertures to external apertures; characterised in that said exit channel has an axial-symmetrical development around the axis and develops mainly in a direction transverse to a base lying plane of the containing flange, thus a vertical direction, parallel to the axis. - a drive assembly, provided with at least a drive body and a support structure of said drive body; - a movement member for moving said cooling liquid, drivable by said drive assembly; - a cooling unit configured to cool the drive assembly and disposed along said axis, intermediate between said drive assembly and said movement member;
A positive electrode active material for a lithium secondary battery comprising: a lithium composite transition metal oxide comprising transition metals including nickel (Ni), cobalt (Co), and manganese (Mn) represented by Chemical Formula 1, wherein the lithium composite transition metal oxide is doped with doping elements including cobalt (Co) and titanium (Ti), wherein, among the doping elements, the cobalt is included in an amount from 2,500 ppm to 4,500 ppm with respect to a total weight of the lithium composite transition metal oxide, and the titanium is included in an amount from 100 ppm to 1,000 ppm with respect to the total weight of the lithium composite transition metal oxide, the lithium composite transition metal oxide includes at least one lithium layer and at least one transition metal layer including the transition metals, the lithium layer and the transition metal layer are alternately arranged, a thickness of the lithium layer ranges from 2.146 Å to 2.182 Å, and a thickness of the transition metal layer ranges from 2.561 Å to 2.595 Å: [Chemical Formula 1] Li 1+p Ni 1-(x+y+z) Co x Mn y M z O 2+q wherein 0 ≤ p ≤ 0.5, 0<x≤0.3, 0<y≤0.3, 0<z≤0.1, -0.2<q<0.2, and 0<x+y+z≤0.4, and M is a doping element. a lithium composite transition metal oxide comprising transition metals including nickel (Ni), cobalt (Co), and manganese (Mn) represented by Chemical Formula 1, wherein the lithium composite transition metal oxide is doped with doping elements including cobalt (Co) and titanium (Ti), wherein, among the doping elements, the cobalt is included in an amount from 2,500 ppm to 4,500 ppm with respect to a total weight of the lithium composite transition metal oxide, and the titanium is included in an amount from 100 ppm to 1,000 ppm with respect to the total weight of the lithium composite transition metal oxide, the lithium composite transition metal oxide includes at least one lithium layer and at least one transition metal layer including the transition metals, the lithium layer and the transition metal layer are alternately arranged, a thickness of the lithium layer ranges from 2.146 Å to 2.182 Å, and a thickness of the transition metal layer ranges from 2.561 Å to 2.595 Å: [Chemical Formula 1] Li 1+p Ni 1-(x+y+z) Co x Mn y M z O 2+q wherein 0 ≤ p ≤ 0.5, 0<x≤0.3, 0<y≤0.3, 0<z≤0.1, -0.2<q<0.2, and 0<x+y+z≤0.4, and M is a doping element.
A xanthene compound of General Formula wherein Y is -OR 17, R 17 being a hydrogen atom, an active ester-carbonyl group, or an active ester-sulfonyl group, -NHR 18, R 18 being a hydrogen atom, or a linear or branched C 1 -C 6 alkyl group or aralkyl group, an azide, a halogen atom, or a carbonyl oxygen =O; at least one of R 1 to R 8 is represented by Formula; -O-R 9 -X-A and a residue is a hydrogen atom, a halogen atom, a C 1 -C 4 alkyl group, or a C 1 -C4 alkoxy group, wherein R 9 is a linear or branched C 1 -C 16 alkylene group; X is O or CONR 19, R 19 being a hydrogen atom or a C 1 -C 4 alkyl group; and A is represented by Formula,,,,,,,,,, or wherein R 10, R 11, and R 12, the same or different, are a linear or branched C 1 -C 6 alkyl group or an aryl group optionally including a substituent; R 13 is a single bond or a linear or branched C 1 -C 3 alkylene group; and R 14, R 15, and R 16 are a linear or branched C 1 -C 3 alkylene group. wherein Y is -OR 17, R 17 being a hydrogen atom, an active ester-carbonyl group, or an active ester-sulfonyl group, -NHR 18, R 18 being a hydrogen atom, or a linear or branched C 1 -C 6 alkyl group or aralkyl group, an azide, a halogen atom, or a carbonyl oxygen =O; at least one of R 1 to R 8 is represented by Formula; -O-R 9 -X-A and a residue is a hydrogen atom, a halogen atom, a C 1 -C 4 alkyl group, or a C 1 -C4 alkoxy group, wherein R 9 is a linear or branched C 1 -C 16 alkylene group; X is O or CONR 19, R 19 being a hydrogen atom or a C 1 -C 4 alkyl group; and A is represented by Formula,,,,,,,,,, or wherein R 10, R 11, and R 12, the same or different, are a linear or branched C 1 -C 6 alkyl group or an aryl group optionally including a substituent; R 13 is a single bond or a linear or branched C 1 -C 3 alkylene group; and R 14, R 15, and R 16 are a linear or branched C 1 -C 3 alkylene group. and a residue is a hydrogen atom, a halogen atom, a C 1 -C 4 alkyl group, or a C 1 -C4 alkoxy group, wherein R 9 is a linear or branched C 1 -C 16 alkylene group; X is O or CONR 19, R 19 being a hydrogen atom or a C 1 -C 4 alkyl group; and A is represented by Formula,,,,,,,,,, or wherein R 10, R 11, and R 12, the same or different, are a linear or branched C 1 -C 6 alkyl group or an aryl group optionally including a substituent; R 13 is a single bond or a linear or branched C 1 -C 3 alkylene group; and R 14, R 15, and R 16 are a linear or branched C 1 -C 3 alkylene group.
A coating composition which provides a transparent, abrasion-resistant, chemical-resistant, low-tack, and water-washable anti-fog coating when cured, comprising: an aqueous-organic solvent mixture comprising: a non-reactive anionic surfactant; a carboxylic acid functional compound; and a mixture of hydrolysis products and partial condensates of: an epoxy functional alkoxysilane, at least one of a tetrafunctional alkoxysilane, a methyltrialkoxysilane, and combinations thereof, an alkoxysilyl functional polymer having polyethylene oxide segments, and an alkoxysilyl functional cationic surfactant. an aqueous-organic solvent mixture comprising: a non-reactive anionic surfactant; a carboxylic acid functional compound; and a mixture of hydrolysis products and partial condensates of: an epoxy functional alkoxysilane, at least one of a tetrafunctional alkoxysilane, a methyltrialkoxysilane, and combinations thereof, an alkoxysilyl functional polymer having polyethylene oxide segments, and an alkoxysilyl functional cationic surfactant. a non-reactive anionic surfactant; a carboxylic acid functional compound; and a mixture of hydrolysis products and partial condensates of: an epoxy functional alkoxysilane, at least one of a tetrafunctional alkoxysilane, a methyltrialkoxysilane, and combinations thereof, an alkoxysilyl functional polymer having polyethylene oxide segments, and an alkoxysilyl functional cationic surfactant. an epoxy functional alkoxysilane, at least one of a tetrafunctional alkoxysilane, a methyltrialkoxysilane, and combinations thereof, an alkoxysilyl functional polymer having polyethylene oxide segments, and an alkoxysilyl functional cationic surfactant.
Assembly for a motor vehicle comprising an electric motor (2,3,4), a fork for a motor vehicle, and a brake disc (7,8) and the assembly further comprising - a motor casing, said motor casing comprising - a motor cartridge comprising a stator connected to the motor casing; - said motor cartridge further comprising a rotor connectable to a wheel shaft; - said assembly further comprising a disc of a brake disc connectable to said wheel shaft; wherein - said assembly comprises the fork for a motor vehicle in one piece with said motor casing; - said assembly further comprises a disc brake caliper positioned astride said disc and connected to said motor casing; characterised in that said assembly comprises a first half-caliper in one piece with said fork; and that said assembly further comprises an associable opposite second half-caliper associated with said first half-caliper so as to arrange said caliper astride the brake disc. - a motor casing, said motor casing comprising - a motor cartridge comprising a stator connected to the motor casing; - said motor cartridge further comprising a rotor connectable to a wheel shaft; - said assembly further comprising a disc of a brake disc connectable to said wheel shaft; - said assembly comprises the fork for a motor vehicle in one piece with said motor casing; - said assembly further comprises a disc brake caliper positioned astride said disc and connected to said motor casing;
A sensor information output apparatus comprising: a plurality of first power supply circuits (31, 32) configured to generate operating voltages of digital sensors (13a, 13b) of a plurality of systems, the number of the first power supply circuits (31, 32) being equal to the number of the plurality of systems, the digital sensors (13a, 13b) being configured to generate electric signals based on a physical amount of a detection target; a single second power supply circuit configured to generate a signal voltage for synchronizing signals, the synchronizing signals being periodically supplied to the digital sensors (13a, 13b); and a plurality of receivers (34, 35) configured to supply the digital sensors (13a, 13b) with the synchronizing signals including the operating voltages generated by the first power supply circuits (31, 32) and the signal voltage generated by the second power supply circuit, the number of the receivers (34, 35) being equal to the number of the plurality of systems, the digital sensors (13a, 13b) being configured to supply the electric signals to an external circuit as sensor information, the electric signals being supplied from the digital sensors (13a, 13b) in response to the synchronizing signals, characterized by further comprising switches (43, 53), each system being provided with one of the switches, the switches (43, 53) being configured to interrupt, when an abnormality occurs in one of transmission lines between the digital sensors (13a, 13b) and the receivers (34, 35), supply of the signal voltage to the receiver of a system in which the abnormality occurs. a plurality of first power supply circuits (31, 32) configured to generate operating voltages of digital sensors (13a, 13b) of a plurality of systems, the number of the first power supply circuits (31, 32) being equal to the number of the plurality of systems, the digital sensors (13a, 13b) being configured to generate electric signals based on a physical amount of a detection target; a single second power supply circuit configured to generate a signal voltage for synchronizing signals, the synchronizing signals being periodically supplied to the digital sensors (13a, 13b); and a plurality of receivers (34, 35) configured to supply the digital sensors (13a, 13b) with the synchronizing signals including the operating voltages generated by the first power supply circuits (31, 32) and the signal voltage generated by the second power supply circuit, the number of the receivers (34, 35) being equal to the number of the plurality of systems, the digital sensors (13a, 13b) being configured to supply the electric signals to an external circuit as sensor information, the electric signals being supplied from the digital sensors (13a, 13b) in response to the synchronizing signals, characterized by further comprising switches (43, 53), each system being provided with one of the switches, the switches (43, 53) being configured to interrupt, when an abnormality occurs in one of transmission lines between the digital sensors (13a, 13b) and the receivers (34, 35), supply of the signal voltage to the receiver of a system in which the abnormality occurs.
A pumping assembly comprising a plunger and a spring located within a spring chamber, wherein a first end of the plunger is located within a housing part, and a second end of the plunger remote from the first end is proximate a shoe (112, 212), and wherein reciprocating movement of the plunger along a pumping axis is caused by force transferred from a rotating cam lobe, via a roller and the shoe (112, 212); the pumping assembly further comprising a spring seat member comprising a surface against which an end of the spring remote from the housing part abuts; the spring seat member further comprising a surface which abuts the shoe (112, 212); wherein the plunger is located within a through hole of the spring seat member and wherein a clearance fit exists between the spring seat member through hole and the plunger; the pumping assembly further comprising a shoulder member which is coupled to the plunger at or near the second end of the plunger; wherein the surface against which the end of the spring remote from the housing part abuts is provided on a radial section of the spring seat member; characterized in that the radial section of the spring seat member is located between the shoulder member and the housing part; wherein the surface of the spring seat member which abuts the shoe (112, 212) comprises a surface of an axial section of the spring seat member; and wherein the shoulder member is located in a void between the axial section of the spring seat member and the plunger; wherein the shoe (112, 212) comprises a top face (164, 264) proximate the plunger and remote from the roller, and wherein the top face (164, 264) of the shoe (112, 212) is non-orthogonal to the pumping axis.
A loss prevention apparatus for a rotatable onboard intelligent controller, comprising: a detection circuit, a control circuit, and a prompt circuit, wherein the detection circuit, the control circuit, and the prompt circuit are electrically connected in sequence; this apparatus being characterised by the detection circuit is configured to detect whether the onboard intelligent controller rotates to an extreme position, and send the result of the detection to the control circuit; the extreme position is a preset limit position to which the onboard intelligent controller rotates; the control circuit is configured to send an alarm instruction to the prompt circuit when obtaining the result of the detection indicating that the onboard intelligent controller rotates to the extreme position; and the prompt circuit is configured to give a corresponding alarm prompt according to the alarm instruction from the control circuit. the detection circuit is configured to detect whether the onboard intelligent controller rotates to an extreme position, and send the result of the detection to the control circuit; the extreme position is a preset limit position to which the onboard intelligent controller rotates; the control circuit is configured to send an alarm instruction to the prompt circuit when obtaining the result of the detection indicating that the onboard intelligent controller rotates to the extreme position; and the prompt circuit is configured to give a corresponding alarm prompt according to the alarm instruction from the control circuit.
A communication control device comprising: a communication unit configured to communicate with a base station of a wireless communication system in which one or more frequencies are used; a setting unit configured to set an event and set a frequency to be used by the base station using occurrence of the set event as a trigger; an acquiring unit configured to acquire information for the setting by the setting unit; and a determining unit configured to determine whether or not the frequency used by the base station is changed, the determining unit performs the determining using information indicating a communication environment in the wireless communication system, characterized in that the information indicating the communication environment being a reference signal received power, RSRP, related to a macro cell of the wireless communication system indicative of influence of inter-cell interference. a communication unit configured to communicate with a base station of a wireless communication system in which one or more frequencies are used; a setting unit configured to set an event and set a frequency to be used by the base station using occurrence of the set event as a trigger; an acquiring unit configured to acquire information for the setting by the setting unit; and a determining unit configured to determine whether or not the frequency used by the base station is changed, the determining unit performs the determining using information indicating a communication environment in the wireless communication system, characterized in that the information indicating the communication environment being a reference signal received power, RSRP, related to a macro cell of the wireless communication system indicative of influence of inter-cell interference.
High-purity 2-fluorobutane having a purity of 99.9 % by volume or more and a butene content of 1,000 ppm by volume or less, and a content of microparticles having a size of 0.1 μm or more in a number equal to or less than 50 per ml.