mhurhangee/ep-ind-claims huggingface dataset:
A fuel nozzle for a gas turbine engine, the fuel nozzle defining a radial direction, a longitudinal direction, a circumferential direction, an upstream end, and a downstream end, the fuel nozzle comprising: an aft body to be coupled to at least one fuel injector, wherein the aft body defines a forward wall and an aft wall each extended in the radial direction, and a plurality of sidewalls extended in the longitudinal direction, wherein the plurality of sidewalls couples the forward wall and the aft wall, wherein the forward wall defines at least one channel inlet orifice, and wherein at least one of the plurality of sidewalls defines at least one channel outlet orifice; wherein at least one micro channel cooling circuit is defined between the one or more channel inlet orifices and the one or more channel outlet orifices; characterized in that: the aft body further defines one or more cooling collectors forming part of the micro channel cooling circuit, wherein each cooling collector defines a substantially cylindrical volume within the aft body and is to be disposed between a plurality of fuel injectors along the radial and/or circumferential direction; wherein the micro channel cooling circuit comprises a plurality of serpentine passages within the aft body, each serpentine passage extending from one of the cooling collectors to at least one of the channel outlet orifices. an aft body to be coupled to at least one fuel injector, wherein the aft body defines a forward wall and an aft wall each extended in the radial direction, and a plurality of sidewalls extended in the longitudinal direction, wherein the plurality of sidewalls couples the forward wall and the aft wall, wherein the forward wall defines at least one channel inlet orifice, and wherein at least one of the plurality of sidewalls defines at least one channel outlet orifice; wherein at least one micro channel cooling circuit is defined between the one or more channel inlet orifices and the one or more channel outlet orifices; characterized in that: the aft body further defines one or more cooling collectors forming part of the micro channel cooling circuit, wherein each cooling collector defines a substantially cylindrical volume within the aft body and is to be disposed between a plurality of fuel injectors along the radial and/or circumferential direction; wherein the micro channel cooling circuit comprises a plurality of serpentine passages within the aft body, each serpentine passage extending from one of the cooling collectors to at least one of the channel outlet orifices.
A mode transition control device for a hybrid vehicle having a first electric motor, a second electric motor and an internal combustion engine as drive sources, and having a transmission that is configured to shift and transmit an output from the power sources to a drive wheel, the transmission being configured to make a mode transition possible between a series traveling mode, in which the drive wheel is driven by the first electric motor while generating power with the second electric motor by a drive of the internal combustion engine, and a parallel traveling mode, in which the drive wheel is driven by both the first electric motor and the internal combustion engine, characterized by: a mode transition controller that switches an ICE gear shift stage that shifts the output of the internal combustion engine upon existence of a mode transition request, the mode transition controller selecting the ICE gear shift stage that is selected based on the rotational speed change amount of the internal combustion engine accompanying a mode transition, and a gear shift stage in which a rotational speed change amount of the internal combustion engine accompanying a mode transition is less than or equal to a predetermined threshold value, at the time of a mode transition from the series traveling mode to the parallel traveling mode. a mode transition controller that switches an ICE gear shift stage that shifts the output of the internal combustion engine upon existence of a mode transition request, the mode transition controller selecting the ICE gear shift stage that is selected based on the rotational speed change amount of the internal combustion engine accompanying a mode transition, and a gear shift stage in which a rotational speed change amount of the internal combustion engine accompanying a mode transition is less than or equal to a predetermined threshold value, at the time of a mode transition from the series traveling mode to the parallel traveling mode.
A method for producing a lithographic printing plate, comprising: imagewise exposing a lithographic printing plate precursor comprising a hydrophilic substrate and a negative image-recording layer which contains a water-insoluble polymer, a polymerizable compound and a polymerization initiator; and removing a non-exposed area of the image-recording layer using an aqueous solution; wherein the water-insoluble polymer is a copolymer of an alkyl or aralkyl (meth)acrylate ester and a (meth)acrylate ester containing an ester residue -CO 2 R, R being a group containing a -CH 2 CH 2 O- unit or a -CH 2 CH 2 NH- unit; and wherein the temperature of the aqueous solution is higher than a glass transition temperature (Tg) of the water-insoluble polymer. imagewise exposing a lithographic printing plate precursor comprising a hydrophilic substrate and a negative image-recording layer which contains a water-insoluble polymer, a polymerizable compound and a polymerization initiator; and removing a non-exposed area of the image-recording layer using an aqueous solution; wherein the water-insoluble polymer is a copolymer of an alkyl or aralkyl (meth)acrylate ester and a (meth)acrylate ester containing an ester residue -CO 2 R, R being a group containing a -CH 2 CH 2 O- unit or a -CH 2 CH 2 NH- unit; and wherein the temperature of the aqueous solution is higher than a glass transition temperature (Tg) of the water-insoluble polymer.
A method for the non-therapeutic treatment or preparation of an animal prior to subjecting the animal to a marketing or management practice, thereby preventing or minimizing the induction of stress-related inanition or anxiety-related inanition in the animal during, or at completion of, the marketing or management practice, the method comprising the step of administrating a formulation including bromide to an animal selected for the practice prior to subjecting the animal to the practice in an amount effective for preventing the animal from reducing feed intake, wherein the animal does not have stress-related inanition or anxiety-related inanition at the time of administration of the formulation.
A method for determining a 6-DOF-pose of an object in space, said 6-DOF-pose defining a 3D-position and a 3D-orientation of the object in space, the method comprising the steps of attaching a 2D optical-tracking marker to the object, said 2D optical-tracking marker comprising an inner marker area having a circular contour with a known radius and having a marker pattern defining at least one characteristic marker feature, said circular contour defining a circle center point, providing a camera and a coordinate system relative to the camera, capturing an image of said 2D optical-tracking marker attached to the object by using the camera, said image comprising an elliptical representation of said circular contour as a result of a generally non-orthogonal viewing angle of said camera relative to said marker area, said elliptical representation having a semi-major axis, a semi-minor axis, an ellipse center point and an ellipse orientation relative to the coordinate system, based on the image, determining a first parameter representing the semi-major axis, determining a second parameter representing the semi-minor axis, determining a third parameter and a fourth parameter together representing the ellipse center point, and determining a fifth parameter representing the ellipse orientation, identifying an image representation of said at least one characteristic marker feature in the image, determining a 6-DOF-pose of the 2D optical-tracking marker in space based on the first parameter, the second parameter, the third parameter, the fourth parameter, the fifth parameter and a correspondence between said image representation and the at least one characteristic marker feature, and determining the 6-DOF-pose of the object based on the 6-DOF-pose of the 2D optical-tracking marker, characterized in that the marker pattern comprises intensity values that vary in accordance with a function that results from a linear combination of a limited number of sinusoidal components along a circular path around the circle center point, and the characteristic feature comprises a rotation angle of the marker pattern around the circle center point, wherein a plurality of image values are sampled in the image along an elliptical path around the ellipse center point in order to determine an image pattern, wherein a transfer function representing a relationship between the marker pattern and the image pattern is determined, and wherein the correspondence between said image representation and the at least one characteristic marker feature is determined using the transfer function.
A user equipment, UE, comprising: a display; and a processor configured to receive a string of indicia identifying a network, the string comprising indicia supported by the UE and indicia not supported by the UE; to determine whether the UE supports one or more indicium of the string of indicia according to a first feature, the processor further configured to display on the display of the UE only the indicia in the string that are supported by the UE, and to skip display of all the indicia in the string that are not supported by the UE, and to still skip special indicia or group of indicia, including space(s) ' ' or hyphen(s) '-', if they remain to be displayed on their own, and to attempt to use a second feature having priority after the first feature to display network information. a display; and a processor configured to receive a string of indicia identifying a network, the string comprising indicia supported by the UE and indicia not supported by the UE; to determine whether the UE supports one or more indicium of the string of indicia according to a first feature, the processor further configured to display on the display of the UE only the indicia in the string that are supported by the UE, and to skip display of all the indicia in the string that are not supported by the UE, and to still skip special indicia or group of indicia, including space(s) ' ' or hyphen(s) '-', if they remain to be displayed on their own, and to attempt to use a second feature having priority after the first feature to display network information.
Anticorrosive coating composition comprising the components: metal particles binding agent and an oxygen compound or a mixture of oxygen compounds of the subgroup elements in the form of a salt of the acid of a transition metal or of an oxide of a transition metal or a mixture of a salt of an acid of a transition metal and an oxide of a transition metal, wherein the transition metal is selected from vanadium, niobium, tantalum, chromium, molybdenum, tungsten, manganese and rhenium, in the presence of a liquid. metal particles binding agent and an oxygen compound or a mixture of oxygen compounds of the subgroup elements in the form of a salt of the acid of a transition metal or of an oxide of a transition metal or a mixture of a salt of an acid of a transition metal and an oxide of a transition metal, wherein the transition metal is selected from vanadium, niobium, tantalum, chromium, molybdenum, tungsten, manganese and rhenium,
An implantable device (3, 4, 31, 41) comprising a first textile element (5, 51) having first and second portions (5a, 51a; 5b, 51b) defining a given length (Lo) and a filamentary element (6, 13, 61, 131) for adjusting said length (Lo) secured in said first and second portions, the device being characterized in that the first textile element (5, 51) is tubular, in particular a braid, and in that the filamentary element (6, 13, 61, 131) forms a first loop (7, 71) externally surrounding the first tubular element (5, 51) in said first portion (5a, 51a) and, by passing inside the tubular element, a second loop externally surrounding the first tubular element (5, 51) in said second portion (5b, 51b), such that traction exerted on at least one of the free ends (6a, 6b) of said filamentary element enables said first and second portions (5a, 51a; 5b, 51b) to be moved towards each other and correspondingly enables the length between said first and second portions of the first textile element (5, 51) to be shortened.
Method of binding carbon dioxide, comprising: providing a starting material which comprises sources of CaO and SiO 2, hydrothermal treatment of the starting material in an autoclave at 50 to 300 °C, tempering the material obtained by hydrothermal treatment at 350 to 600 °C, adding water or other liquids to adjust consistency casting in moulds for the production of building elements or processing as mortar or in-situ concrete, and hardening of the material obtained by hydrothermal treatment and tempering by treatment with carbon dioxide. providing a starting material which comprises sources of CaO and SiO 2, hydrothermal treatment of the starting material in an autoclave at 50 to 300 °C, tempering the material obtained by hydrothermal treatment at 350 to 600 °C, adding water or other liquids to adjust consistency casting in moulds for the production of building elements or processing as mortar or in-situ concrete, and hardening of the material obtained by hydrothermal treatment and tempering by treatment with carbon dioxide.
A sofa chair frame, comprising an underframe structure, a leg structure, a back structure and an activating device, the leg structure and the back structure being respectively connected to the underframe structure, the activating device being in an activating connection with the leg structure and the back structure respectively, wherein, the sofa chair frame also comprises: a linkage mechanism, two ends of which are respectively connected to the leg structure and the back structure; the linkage mechanism comprises a rotating rod of a leg, a linkage rod, a rotating rod of a back and a swinging rod; one end of the rotating rod of the leg is connected to the leg structure, and the other end of the rotating rod of the leg is connected to the linkage rod; one end of the rotating rod of the back is connected to the back structure, and the other end of the rotating rod of the back is connected to the swinging rod; the swinging rod is provided on an outer side of the linkage rod; one end of the linkage rod is connected to the swinging rod by a rotating shaft, and the other end of the linkage rod is connected to the swinging rod by a connecting rod structure; and two ends of the linkage rod are connected to the underframe structure; the leg structure comprising: a back rod of the leg, one end of which is connected to the underframe structure; a support rod of the leg, one end of which is connected to the rotating rod of the leg; a stretchable rod of the leg, one end of which is connected to the other end of the back rod of the leg; a transmission rod of the leg, one end of which is connected to the other end of the support rod of the leg; a connection rod of the leg, one end of which is connected to the other end of the transmission rod of the leg; and a locking rod of the leg and a front rod of the leg, one end of the locking rod of the leg being connected to the other end of the connection rod of the leg, the other end of the locking rod of the leg being connected to the front rod of the leg; also comprising a brace of the leg, a lug being provided on the brace of the leg, two ends of the lug being respectively connected to the other end of the stretchable rod of the leg and the front rod of the leg; and after components of the leg structure are collapsed, the components are in a folded state and located beneath the underframe structure.
A method for emulating a client device bandwidth of a session client in a virtual desktop session on a session host, the method comprising: determining, by the session host, the client device bandwidth of the session client; hooking an application programming interface, API, on the session host in the virtual desktop session; when the API is called by a first application executing on the session host: intercepting the API call based on the hook; throttling a first bandwidth used to return data associated with the API based on the client device bandwidth; and returning the data to the first application based on the throttled first bandwidth; and determining, by the first application, an available bandwidth based on analyzing the data returned by the API. determining, by the session host, the client device bandwidth of the session client; hooking an application programming interface, API, on the session host in the virtual desktop session; when the API is called by a first application executing on the session host: intercepting the API call based on the hook; throttling a first bandwidth used to return data associated with the API based on the client device bandwidth; and returning the data to the first application based on the throttled first bandwidth; and intercepting the API call based on the hook; throttling a first bandwidth used to return data associated with the API based on the client device bandwidth; and returning the data to the first application based on the throttled first bandwidth; and determining, by the first application, an available bandwidth based on analyzing the data returned by the API.
A pharmaceutical dispenser, comprising: a liquid formulation comprising a clinically effective concentration of nitric oxide; or means for forming such a liquid formulation from a nitric oxide source; and means for forming a nebulised mist of said liquid formulation, wherein the liquid formulation is an aqueous solution wherein the liquid formulation contains from 10 to 40,000 parts per billion by weight of NO. a liquid formulation comprising a clinically effective concentration of nitric oxide; or means for forming such a liquid formulation from a nitric oxide source; and means for forming a nebulised mist of said liquid formulation, wherein the liquid formulation is an aqueous solution wherein the liquid formulation contains from 10 to 40,000 parts per billion by weight of NO.
A method for preparing a fermented beverage comprising: a. obtaining an enzymatically hydrolyzed vegetable protein, wherein the vegetable protein is from vegetable sources selected from dent corn, waxy corn, high amylose corn, rice, waxy rice, pea, chick pea, yellow pea, navy beans, fava beans, lentils and/or wheat; b. after step a, combining the enzymatically hydrolyzed vegetable protein with a fermentable medium; c. fermenting the fermentable medium to form a fermented beverage; wherein the fermented beverage is beer; wherein the enzymatically hydrolyzed vegetable protein is obtained by slurrying the vegetable protein source in a major amount by weight of water, so that the vegetable protein source is present at from 2% to 50% by weight, adjusting the pH to from 5.0 to 6.5 with organic or inorganic acids or with bases, adding one or more amylases to the vegetable protein source slurry, heating the vegetable protein source slurry in a reactor under controlled conditions to a temperature between about 50°C to 90°C with sufficient agitation to homogenize the vegetable protein source and held at a final temperature between 80°C and 100°C for 1 h with continued agitation, adjusting the pH to 6.5 to 8.0, adding an enzyme preparation comprised of one or more proteolytic enzymes to the pH-controlled, homogenized slurry at a dosage level of 0.25 to 4.0%, holding the resulting enzyme-dosed mixture is then held under conditions conducive to hydrolysis for 2 to 50 hours, deactivating the enzyme and drying the product to a moisture content of from 1 to 8 wt.-% moisture. a. obtaining an enzymatically hydrolyzed vegetable protein, wherein the vegetable protein is from vegetable sources selected from dent corn, waxy corn, high amylose corn, rice, waxy rice, pea, chick pea, yellow pea, navy beans, fava beans, lentils and/or wheat; b. after step a, combining the enzymatically hydrolyzed vegetable protein with a fermentable medium; c. fermenting the fermentable medium to form a fermented beverage; wherein the fermented beverage is beer; wherein
A method for operating a switching regulator (203, 301) and for supplying output current at a regulated voltage to a load (214, 314), the method comprising: determining the output current; determining the input voltage; operating in a continuous mode when the output current is not below a predetermined i burst threshold and when an input voltage is not below a first input threshold level; and entering a burst mode and turning OFF a switch mode power supply (208, 308) when the input voltage is below the first input threshold level; characterized by remaining in burst mode and keeping the switch mode power supply OFF when the input voltage is not above a second input threshold level; and turning ON the switch mode power supply when the input voltage is above the second input threshold level; further comprising: setting a peak output current above the predetermined I burst threshold when the input voltage is above the second input threshold level; and remaining in burst mode with the switch mode power supply ON when the input voltage is not below the first input threshold level; and going back to the step of entering the burst mode operation and turning OFF the switch mode power supply when the input voltage is below the first input threshold level. determining the output current; determining the input voltage; operating in a continuous mode when the output current is not below a predetermined i burst threshold and when an input voltage is not below a first input threshold level; and entering a burst mode and turning OFF a switch mode power supply (208, 308) when the input voltage is below the first input threshold level; characterized by remaining in burst mode and keeping the switch mode power supply OFF when the input voltage is not above a second input threshold level; and turning ON the switch mode power supply when the input voltage is above the second input threshold level; further comprising: setting a peak output current above the predetermined I burst threshold when the input voltage is above the second input threshold level; and remaining in burst mode with the switch mode power supply ON when the input voltage is not below the first input threshold level; and going back to the step of entering the burst mode operation and turning OFF the switch mode power supply when the input voltage is below the first input threshold level. setting a peak output current above the predetermined I burst threshold when the input voltage is above the second input threshold level; and remaining in burst mode with the switch mode power supply ON when the input voltage is not below the first input threshold level; and going back to the step of entering the burst mode operation and turning OFF the switch mode power supply when the input voltage is below the first input threshold level.