mhurhangee/patent-ind-claim-en huggingface dataset:
A container monitoring method, used to monitor multiple monitored objects running on a physical machine, wherein the multiple monitored objects comprise at least one of the following types: a container, a process-in-container, or a thread-in-container, the physical machine comprises a primary monitor, and the monitoring method comprises: obtaining (s201), by the primary monitor, monitoring information respectively reported by the multiple monitored objects, wherein monitoring information of monitored objects is reported by using a same channel, wherein the monitored objects are objects of a same type and the monitored objects are a part of the multiple monitored objects, each of the multiple monitored objects has a unique identifier, monitoring information of each monitored object comprises at least one of heartbeat information or a quality of service report, the heartbeat information indicates a running status in a heartbeat period, of the monitored object reporting the heartbeat information, and the quality of service report is used to record quality of service, QoS, of an application carried on the monitored object reporting the quality of service report, wherein the channel is a file or a communication connection between processes; and determining (s202), by the primary monitor, respective service statuses of the multiple monitored objects according to the monitoring information of the multiple monitored objects and identifiers of the multiple monitored objects.
An in vitro or ex vivo method of expressing an antigenic molecule or a part thereof on the surface of a cell, comprising contacting said cell with said antigenic molecule, a photosensitising agent, and the cytokine GM-CSF, and irradiating the cell with light of a wavelength effective to activate the photosensitising agent, wherein said antigenic molecule is released into the cytosol of the cell and the antigenic molecule or a part thereof is subsequently presented on the cell's surface to generate a cell expressing said antigenic molecule or part thereof on its surface.
A method of making oxidized graphene, comprising: placing graphite into water containing an oxidizing agent selected from at least one of CO 2 , O 2 , steam, N 2 O, NO, NO 2 , O 3 or ClO 2 at a concentration wherein the oxidation potential is less than 2V; mechanically exfoliating graphite into graphene flakes while oxidizing the graphene flakes to produce an output that is limited to oxidized flat graphene flakes and water; separating the oxidized flat graphene flakes from the water; and precipitating any remaining graphite by increasing the pH of the mixture above pH 9, or decreasing the pH of the mixture below pH 3. placing graphite into water containing an oxidizing agent selected from at least one of CO 2 , O 2 , steam, N 2 O, NO, NO 2 , O 3 or ClO 2 at a concentration wherein the oxidation potential is less than 2V; mechanically exfoliating graphite into graphene flakes while oxidizing the graphene flakes to produce an output that is limited to oxidized flat graphene flakes and water; separating the oxidized flat graphene flakes from the water; and precipitating any remaining graphite by increasing the pH of the mixture above pH 9, or decreasing the pH of the mixture below pH 3.
Method for reducing the sodium concentration in the region of at least one surface of a glass sheet in order to reduce or prevent the occurrence of glass ageing and weathering effects on the glass sheet, which comprises the steps: a) provision of a glass sheet having at least one surface; b) application of a screen printing paste comprising at least one screen printing oil to the at least one surface; c) drying of the screen printing paste on the at least one surface, preferably at 60°C; d) heat treatment of the glass sheet at a temperature of more than 500°C, in particular more than 600°C; e) removal of the screen printing paste; characterized in that the screen printing paste has a concentration of sodium of not more than 10 ppm and comprises at least one metal oxide and/or a metal sulphide. a) provision of a glass sheet having at least one surface; b) application of a screen printing paste comprising at least one screen printing oil to the at least one surface; c) drying of the screen printing paste on the at least one surface, preferably at 60°C; d) heat treatment of the glass sheet at a temperature of more than 500°C, in particular more than 600°C; e) removal of the screen printing paste; characterized in that the screen printing paste has a concentration of sodium of not more than 10 ppm and comprises at least one metal oxide and/or a metal sulphide.
A drive shaft connecting device with pieces of drive shaft connecting equipment at each of both the vehicle end and the attachment end, wherein the pieces of drive shaft connecting equipment of the drive shaft connecting device are respectively provided for on a device for coupling a vehicle and an attachment device, such as a trailer, an additional axle or an attachment, and wherein the pieces of the drive shaft connecting equipment are connected with the coupling devices, fastened axially in such a way that, when the vehicle is mechanically connected with an additional axle or a trailer or attachment, the pieces of drive shaft connecting equipment are forcibly coupled with one another, characterised in that the drive shaft connecting equipment at the vehicle end has a bearing seat and a clutch hub mounted rotatably therein, wherein the clutch hub has a bowl-shaped, hollow cylindrical coupling section with an internal gear for connecting with a coupling piece of drive shaft connecting equipment , and the drive shaft connection at the attachment end has a bowl-shaped bearing seat , a coupling piece and a support shaft , wherein the cylindrical coupling piece has an external gear for coupling with the correspondingly designed internal gear of the clutch hub at the coupling end, and the support shaft has a bowl-shaped, hollow cylindrical coupling piece receptacle at the coupling end, wherein the coupling piece is to be found in a bowl-shaped coupling piece receptacle of the support shaft , and is fixed by means of a screw joint 239. the drive shaft connecting equipment at the vehicle end has a bearing seat and a clutch hub mounted rotatably therein, wherein the clutch hub has a bowl-shaped, hollow cylindrical coupling section with an internal gear for connecting with a coupling piece of drive shaft connecting equipment , and the drive shaft connection at the attachment end has a bowl-shaped bearing seat , a coupling piece and a support shaft , wherein the cylindrical coupling piece has an external gear for coupling with the correspondingly designed internal gear of the clutch hub at the coupling end, and the support shaft has a bowl-shaped, hollow cylindrical coupling piece receptacle at the coupling end, wherein the coupling piece is to be found in a bowl-shaped coupling piece receptacle of the support shaft , and is fixed by means of a screw joint 239.
A method for synchronizing device clocks comprising: discovering , over a network, a plurality of devices within a media system; each device of the plurality of devices selecting a primary clock device of the plurality of devices, by utilizing the same algorithmic rules, the primary clock device having a primary clock ; sending a clock synchronization request from the primary clock device to a secondary device of the plurality of devices, regardless of whether media content is being rendered by any of the plurality of devices; and, then initiating (206;216) a clock synchronization sequence wherein the clock synchronization sequence is arranged to synchronize a secondary clock of the secondary device with the primary clock of the primary clock device. discovering , over a network, a plurality of devices within a media system; each device of the plurality of devices selecting a primary clock device of the plurality of devices, by utilizing the same algorithmic rules, the primary clock device having a primary clock ; sending a clock synchronization request from the primary clock device to a secondary device of the plurality of devices, regardless of whether media content is being rendered by any of the plurality of devices; and, then initiating (206;216) a clock synchronization sequence wherein the clock synchronization sequence is arranged to synchronize a secondary clock of the secondary device with the primary clock of the primary clock device.
A method for producing a molded article, comprising: a step of coating raw fibers with a resin to obtain a pellet raw material containing the resin and the raw fibers; a step of cutting the pellet raw material so that the raw fibers are cut in a predetermined length to obtain a plurality of pellets each containing the resin and a bundle of fibers produced by cutting the raw fibers; a step of applying pressure to the pellets so that the bundle of fibers contained in each pellet is flattened and a part of the fibers is cut due to external stress by applying pressure to produce main-fibers and sub-fibers shorter than the main fibers; and a step of putting the pellets after being flattened into a mold to obtain the molded article. a step of coating raw fibers with a resin to obtain a pellet raw material containing the resin and the raw fibers; a step of cutting the pellet raw material so that the raw fibers are cut in a predetermined length to obtain a plurality of pellets each containing the resin and a bundle of fibers produced by cutting the raw fibers; a step of applying pressure to the pellets so that the bundle of fibers contained in each pellet is flattened and a part of the fibers is cut due to external stress by applying pressure to produce main-fibers and sub-fibers shorter than the main fibers; and a step of putting the pellets after being flattened into a mold to obtain the molded article.
An apparatus for measuring flow in a conduit , comprising: a sensor head having a longitudinally extending central axis, the sensor head being configured for insertion transversely through a conduit sidewall to position the sensor head in an electrically conductive fluid flowing through the conduit, the sensor head comprising: a core ; a coil that at least partially surrounds the core, the coil being excitable to generate an electromagnetic field; first and second electrodes spaced apart from each other; and a body that supports the coil, core, and electrodes; wherein the body extends along the longitudinal axis of the sensor head, wherein the body comprises a proximal end and a distal end spaced along the central axis, the distal end forming the terminal end of the sensor head, the body comprising a central fin and first and second lateral wings that project axially from the distal end of the body on opposite sides of the central fin, a first channel being defined between the first lateral wing and the central fin, and a second channel being defined between the second lateral wing and the central fin, and wherein the first electrode is positioned in the first channel and the second electrode is positioned in the second channel, wherein the central fin comprises curved surfaces facing convexly away from each other toward the channels, and wherein the wings comprise curved surfaces that face their respective channels and the curved surface of the central fin, the curved surfaces of the central fin and the wings defining a converging-diverging configuration of the channels. a core ; a coil that at least partially surrounds the core, the coil being excitable to generate an electromagnetic field; first and second electrodes spaced apart from each other; and a body that supports the coil, core, and electrodes; wherein the body extends along the longitudinal axis of the sensor head, wherein the body comprises a proximal end and a distal end spaced along the central axis, the distal end forming the terminal end of the sensor head, the body comprising a central fin and first and second lateral wings that project axially from the distal end of the body on opposite sides of the central fin, a first channel being defined between the first lateral wing and the central fin, and a second channel being defined between the second lateral wing and the central fin, and wherein the first electrode is positioned in the first channel and the second electrode is positioned in the second channel, wherein the central fin comprises curved surfaces facing convexly away from each other toward the channels, and wherein the wings comprise curved surfaces that face their respective channels and the curved surface of the central fin, the curved surfaces of the central fin and the wings defining a converging-diverging configuration of the channels.
A method of planning a flight path for a search of a target by an unmanned aerial vehicle (UAV) , the method comprising: receiving, by a control system , an indication of a boundary (403; 703) of a search area, wherein the search area comprises a plurality of search regions; receiving, by the control system , an indication of a selected search pattern; generating a target probability map including a number of geometrically shaped search regions (901-920), wherein each search region (901-920) in the target probability map includes an indication of a probability that the search target is located within that particular search region; determining, by the control system , a flight path (405; 705) based on the search area boundary (403; 703) and the selected search pattern, wherein the control system is configured to determine the search area boundary based on a probability that the search target is located within a particular search region (404; 704) in the target probability map, wherein the probability that the search target is located within a particular search region is based on a number of times that a UAV has flown over the search area, the probability that the search target is located within a particular search region being lower after that search region has been searched many times; and transmitting one or more indications of the flight path (405; 705) to the unmanned aerial vehicle . receiving, by a control system , an indication of a boundary (403; 703) of a search area, wherein the search area comprises a plurality of search regions; receiving, by the control system , an indication of a selected search pattern; generating a target probability map including a number of geometrically shaped search regions (901-920), wherein each search region (901-920) in the target probability map includes an indication of a probability that the search target is located within that particular search region; determining, by the control system , a flight path (405; 705) based on the search area boundary (403; 703) and the selected search pattern, wherein the control system is configured to determine the search area boundary based on a probability that the search target is located within a particular search region (404; 704) in the target probability map, wherein the probability that the search target is located within a particular search region is based on a number of times that a UAV has flown over the search area, the probability that the search target is located within a particular search region being lower after that search region has been searched many times; and transmitting one or more indications of the flight path (405; 705) to the unmanned aerial vehicle .
A testing apparatus for testing vaporizers of electronic cigarettes, or electronic cigarettes or parts thereof comprising the vaporizers, each vaporizer comprising a liquid holder forming a chamber with a filler material retaining a liquid to be vaporized, a heating element, input terminals connected to the heating element for electrically powering the heating element, and a vapour output, whereby the vaporizer is to generate vapour emerging from the vapour output when a current flows through the input terminals in the heating element, the testing apparatus comprising: a holding construction part provided with multiple holding units each for holding a vaporizer, or an electronic cigarette or part thereof comprising the vaporizer, wherein the holding units are positioned at a holding distance from each other, and wherein the holding construction part is movable whereby the holding units are moved along a holding unit trajectory; a channel construction part provided with multiple first channels each having an inlet opening and an outlet opening , wherein each first channel is associated with a respective holding unit, wherein the inlet opening of each first channel is located to be in fluid communication with the vapour output of a vaporizer in the associated holding unit, and wherein the channel construction part is adapted to be moved in synchronism with the holding construction part whereby the outlet openings of the first channels move along an outlet opening trajectory; a fluid duct having an inlet port located to be adjacent to the outlet opening trajectory, wherein the fluid duct is connected to a fluid pump to create a fluid flow in the fluid duct in a direction away from the inlet port, and wherein the channel construction part moves relative to the inlet port of the fluid duct; and a vapour sensor arranged in the fluid duct. a holding construction part provided with multiple holding units each for holding a vaporizer, or an electronic cigarette or part thereof comprising the vaporizer, wherein the holding units are positioned at a holding distance from each other, and wherein the holding construction part is movable whereby the holding units are moved along a holding unit trajectory; a channel construction part provided with multiple first channels each having an inlet opening and an outlet opening , wherein each first channel is associated with a respective holding unit, wherein the inlet opening of each first channel is located to be in fluid communication with the vapour output of a vaporizer in the associated holding unit, and wherein the channel construction part is adapted to be moved in synchronism with the holding construction part whereby the outlet openings of the first channels move along an outlet opening trajectory; a fluid duct having an inlet port located to be adjacent to the outlet opening trajectory, wherein the fluid duct is connected to a fluid pump to create a fluid flow in the fluid duct in a direction away from the inlet port, and wherein the channel construction part moves relative to the inlet port of the fluid duct; and a vapour sensor arranged in the fluid duct.
An engineered Gram-negative bacterium for the production of a polysaccharide, wherein the Gram-negative bacterium comprises (a) a nucleic acid encoding a regulatory gene wzg, wzh, wzd or wze of S. pneumoniae capsular polysaccharide gene cluster CPS1, CPS2, CPS3, CPS4, CPS5, CPS6 (A and B), CPS7 (A,B,C), CPS8, CPS9 (A,L,N,V), CPS10 (A,B,C,F), CPS11 (A,B,C,D,F), CPS12 (A,B,F), CPS13, CPS14, CPS15 (A,B,C,F), CPS16 (A,F), CPS17 (A,F), CPS18 (A,B,C,F), CPS19 (A,B,C,F), CPS20, CPS21, CPS22 (A,F), CPS23 (A,B,F), CPS24 (A,B,F), CPS25 (A,F), CPS26, CPS27, CPS28 (A,F), CPS29, CPS31, CPS32 (A,F), CPS33 (A,B,C,D,F), CPS34, CPS35 (A,B,C,D,F), CPS36, CPS37, CPS38, CPS39, CPS40, CPS41 (A,F), CPS42, CPS43, CPS44, CPS45, CPS46, CPS47 (A,F), or CPS48; or (b) a nucleic acid encoding a regulatory gene capA, capB or capC of Staphylococcus aureus capsular polysaccharide gene cluster CPS5, or CPS8; or (c) a nucleic acid encoding a regulatory gene CpsA, CpsB, CpsC or CpsD of Streptococcus agalactiae (group B, GBS) capsular polysaccharide gene cluster CPSIa, CPSIb, CPSII, CPSIII, CPSIV, CPSV, CPSVI, CPSVII, or CPSVIII. wherein the expression and activity of UDP-glucose:undecaprenyl phosphate glucose-phosphate transferase activity is increased.
A packet sending method, wherein the method comprises: sending, by a network device, a control packet to a host, wherein the control packet comprises a second identifier; receiving (S212), by the network device, a first service packet from the host, wherein the first service packet comprises a first segment identifier, the first segment identifier comprises a locator field and a function field, the locator field comprises an address of the network device, and the function field comprises a first identifier and the second identifier, and the first identifier indicates a network performance requirement of the first service packet and the value of the second identifier is used to indicate the function of receiving, by the network device, the network performance requirement; adding, by the network device, a segment list to the first service packet based on the first identifier to obtain a second service packet, and a forwarding path corresponding to the segment list meets the network performance requirement; and forwarding (S213), by the network device, the second service packet through the forwarding path. sending, by a network device, a control packet to a host, wherein the control packet comprises a second identifier; receiving (S212), by the network device, a first service packet from the host, wherein the first service packet comprises a first segment identifier, the first segment identifier comprises a locator field and a function field, the locator field comprises an address of the network device, and the function field comprises a first identifier and the second identifier, and the first identifier indicates a network performance requirement of the first service packet and the value of the second identifier is used to indicate the function of receiving, by the network device, the network performance requirement; adding, by the network device, a segment list to the first service packet based on the first identifier to obtain a second service packet, and a forwarding path corresponding to the segment list meets the network performance requirement; and forwarding (S213), by the network device, the second service packet through the forwarding path.
A viewfinder apparatus comprising: a window , the window being a transparent display and configured to display reference marks; an optical system comprising a prism and an eye imaging camera , wherein the prism is configured to change a path of light such that a portion of light incident on the optical system is incident on the eye imaging camera , the eye imaging camera is configured to photograph an eye of a user through the window ; and a controller configured to detect a location that the eye imaging camera has been moved to, based on a location of the reference marks included in a first image captured by the eye imaging camera before the eye imaging camera is moved and a location of the reference marks included in a second image captured by the eye imaging camera after the eye imaging camera is moved, wherein the optical system moves away from the window or closer to the window along an optical axis , and the eye imaging camera is moved in a same direction as a direction in which the optical system moves, wherein the controller is configured to track the eye of the user using the detected location where the eye imaging camera has been moved. a window , the window being a transparent display and configured to display reference marks; an optical system comprising a prism and an eye imaging camera , wherein the prism is configured to change a path of light such that a portion of light incident on the optical system is incident on the eye imaging camera , the eye imaging camera is configured to photograph an eye of a user through the window ; and a controller configured to detect a location that the eye imaging camera has been moved to, based on a location of the reference marks included in a first image captured by the eye imaging camera before the eye imaging camera is moved and a location of the reference marks included in a second image captured by the eye imaging camera after the eye imaging camera is moved, wherein the optical system moves away from the window or closer to the window along an optical axis , and the eye imaging camera is moved in a same direction as a direction in which the optical system moves, wherein the controller is configured to track the eye of the user using the detected location where the eye imaging camera has been moved.