mhurhangee/patent-ind-claim-en huggingface dataset:
A method for updating a route in a network, wherein the network comprises a first network device, a second network device, and a third network device, and the third network device is connected to the first network device and the second network device, each of the first network device and the second network device is a boundary router in the network and the third network device is a non-boundary router in the network; and the method comprises: setting up (S401), by the first network device, a correspondence between an Internet Protocol IP network segment and a first IP address, wherein the first IP address is an IP address of the first network device; sending (S402), by the first network device, a first LSA packet to the third network device, wherein the first LSA packet comprises a second IP address, the first LSA packet is used to trigger the third network device to generate a first route whose destination address is the second IP address, the second IP address belongs to the IP network segment, and a next-hop IP address of the first route is the first IP address; and sending (S404), by the first network device, a second LSA packet to the third network device when the first network device determines that switching needs to be performed on a next hop of a route that is stored in the third network device, whose destination IP address belongs to the IP network segment, and whose next-hop IP address is the first IP address, wherein the second LSA packet comprises the first IP address, the second LSA packet is used to trigger the third network device to update, from the first IP address to a third IP address, the next-hop IP address of the first route, and the third IP address is an IP address of the second network device. setting up (S401), by the first network device, a correspondence between an Internet Protocol IP network segment and a first IP address, wherein the first IP address is an IP address of the first network device; sending (S402), by the first network device, a first LSA packet to the third network device, wherein the first LSA packet comprises a second IP address, the first LSA packet is used to trigger the third network device to generate a first route whose destination address is the second IP address, the second IP address belongs to the IP network segment, and a next-hop IP address of the first route is the first IP address; and sending (S404), by the first network device, a second LSA packet to the third network device when the first network device determines that switching needs to be performed on a next hop of a route that is stored in the third network device, whose destination IP address belongs to the IP network segment, and whose next-hop IP address is the first IP address, wherein the second LSA packet comprises the first IP address, the second LSA packet is used to trigger the third network device to update, from the first IP address to a third IP address, the next-hop IP address of the first route, and the third IP address is an IP address of the second network device.
A method of optimising the performance of combustion equipment of a gas turbine engine having a principal rotational axis , the method comprising the steps of: providing a fuel flow into the combustion equipment via a plurality of fuel injectors circumferentially disposed about the principal rotational axis at a plurality of injector positions in a first circumferential arrangement , wherein the fuel is mixed with air and the mixture is combusted to produce combustion gases ; determining a plurality of temperatures of the combustion gases at a plurality of circumferential positions downstream of the combustion equipment using a plurality of temperature measurement devices , wherein the plurality of circumferential positions corresponds to the plurality of injector positions ; and ranking the plurality of circumferential positions based on the plurality of temperatures of the combustion gases determined using the plurality of temperature measurement devices , wherein the plurality of circumferential positions is ranked from a hottest circumferential position to a coldest circumferential position ; characterised by repositioning at least some of the plurality of fuel injectors between the plurality of injector positions based at least on the ranking of the plurality of circumferential positions , wherein, after repositioning of the at least some of the plurality of fuel injectors , the plurality of fuel injectors is disposed at the plurality of injector positions in a second circumferential arrangement different from the first circumferential arrangement . providing a fuel flow into the combustion equipment via a plurality of fuel injectors circumferentially disposed about the principal rotational axis at a plurality of injector positions in a first circumferential arrangement , wherein the fuel is mixed with air and the mixture is combusted to produce combustion gases ; determining a plurality of temperatures of the combustion gases at a plurality of circumferential positions downstream of the combustion equipment using a plurality of temperature measurement devices , wherein the plurality of circumferential positions corresponds to the plurality of injector positions ; and ranking the plurality of circumferential positions based on the plurality of temperatures of the combustion gases determined using the plurality of temperature measurement devices , wherein the plurality of circumferential positions is ranked from a hottest circumferential position to a coldest circumferential position ; characterised by repositioning at least some of the plurality of fuel injectors between the plurality of injector positions based at least on the ranking of the plurality of circumferential positions , wherein, after repositioning of the at least some of the plurality of fuel injectors , the plurality of fuel injectors is disposed at the plurality of injector positions in a second circumferential arrangement different from the first circumferential arrangement .
A long-acting subcutaneous injectable veterinary composition comprising microspheres, the microspheres comprising: a) (S)-1-(5'-(5-(3,5-dichloro-4-fluorophenyl)-5-(trifluoromethyl)-4,5-dihydroisoxazol-3-yl)-3'H-spiro[azetidine-3,1'-isobenzofuran]-1-yl)-2-(methylsulfonyl)ethanone; and b) at least one biopolymer selected from poly(D,L-lactide-co-glycolide) or poly(D,L-lactide); wherein the composition further comprises at least one veterinary acceptable-carrier, -excipient, or mixture thereof. a) (S)-1-(5'-(5-(3,5-dichloro-4-fluorophenyl)-5-(trifluoromethyl)-4,5-dihydroisoxazol-3-yl)-3'H-spiro[azetidine-3,1'-isobenzofuran]-1-yl)-2-(methylsulfonyl)ethanone; and b) at least one biopolymer selected from poly(D,L-lactide-co-glycolide) or poly(D,L-lactide);
A method of developing an application of an image forming apparatus comprising a print unit for printing an image, a processor , a storage and a user interface panel , the method comprising: executing, by the processor , a solution that is stored in the storage, the solution providing tools to develop the application of the image forming apparatus ; displaying on the user interface panel functions of the image forming apparatus according to the execution of the solution; generating an application corresponding to input information of a user by combining the functions based on the input information; and storing the generated application in the storage of the image forming apparatus , wherein the displaying comprises displaying modules describing the functions of the image forming apparatus corresponding to combinations of some application programming interface, API, functions of the image forming apparatus, and the generating comprises generating the application corresponding to the input information by combining some of the displayed modules based on the input information, wherein each of the modules describes a function of the image forming apparatus corresponding to a combination of some API functions of the image forming apparatus with codes executable in the image forming apparatus by using the combination. executing, by the processor , a solution that is stored in the storage, the solution providing tools to develop the application of the image forming apparatus ; displaying on the user interface panel functions of the image forming apparatus according to the execution of the solution; generating an application corresponding to input information of a user by combining the functions based on the input information; and storing the generated application in the storage of the image forming apparatus , wherein the displaying comprises displaying modules describing the functions of the image forming apparatus corresponding to combinations of some application programming interface, API, functions of the image forming apparatus, and the generating comprises generating the application corresponding to the input information by combining some of the displayed modules based on the input information, wherein each of the modules describes a function of the image forming apparatus corresponding to a combination of some API functions of the image forming apparatus with codes executable in the image forming apparatus by using the combination.
A method for parallelized determination of positions (P i ) of two or more simultaneously active, spaced-apart molecules in one or more spatial directions in a sample using a localization microscope , wherein light distributions arising due to interference of coherent light are used for determining the positions (P i ) of the molecules , comprising the steps of: - generating (S1) a plurality of light distributions using a first light modulator having a plurality of switchable pixels disposed in an image plane of the localization microscope , each light distribution having a local intensity minimum and regions with an intensity increase adjacent thereto; - illuminating (S2) each of the two or more molecules with one light distribution each; - for each of the light distributions , detecting (S4) photons emitted by the molecules for different positionings of the light distribution , the light distributions being positioned (S3) independently of each other by controlling the light modulator accordingly; and - deriving (S5) the positions (P i ) of the molecules based on the photons detected for the different positionings of the light distributions . - generating (S1) a plurality of light distributions using a first light modulator having a plurality of switchable pixels disposed in an image plane of the localization microscope , each light distribution having a local intensity minimum and regions with an intensity increase adjacent thereto; - illuminating (S2) each of the two or more molecules with one light distribution each; - for each of the light distributions , detecting (S4) photons emitted by the molecules for different positionings of the light distribution , the light distributions being positioned (S3) independently of each other by controlling the light modulator accordingly; and - deriving (S5) the positions (P i ) of the molecules based on the photons detected for the different positionings of the light distributions .
A method comprising: detecting, by an enforcement point located in a radio access network node, an initiation of a session for an application; requesting , by the enforcement point , a first level quality of experience policy for the detected session; receiving , by the enforcement point from a policy server , the first level quality of experience policy for the detected session; deriving, by the enforcement point , based on: i) the first level quality of experience policy for the detected session, and ii) context information indicative of real-time user traffic associated with the detected session for the application, a second level quality of experience target and/or a quality of service target for the detected session; enforcing, by the enforcement point , the second level quality of experience target and/or the quality of service target on the detected session. detecting, by an enforcement point located in a radio access network node, an initiation of a session for an application; requesting , by the enforcement point , a first level quality of experience policy for the detected session; receiving , by the enforcement point from a policy server , the first level quality of experience policy for the detected session; deriving, by the enforcement point , based on: i) the first level quality of experience policy for the detected session, and ii) context information indicative of real-time user traffic associated with the detected session for the application, a second level quality of experience target and/or a quality of service target for the detected session; enforcing, by the enforcement point , the second level quality of experience target and/or the quality of service target on the detected session.
A method of producing a video stream comprising: a) obtaining a first image (22-A) of a scene; b) blurring said first image by a fixed amount in a pre-determined number of directions (B0,B90,B180,B270) to provide a number of blurred versions of said first image; c) obtaining a second successive image (22-A) of the same scene; d) determining a pixel-by-pixel motion vector indicating motion between the first image and at least the second image, said motion vector comprising a motion magnitude and a motion direction for each pixel of the first image; e) applying the motion vector to the pixels of the first image, including for each pixel: determining (17-A) according to the motion vector for the pixel a blending component corresponding to each blurred version of said first image; and combining (17-B) corresponding pixel values of said first image and each of said blurred versions of said first image according to said blending components to provide a blurred first image; f) repeating steps a) to e) for successively acquired images in said stream; and g) encoding said sequence of blurred images in a video stream. a) obtaining a first image (22-A) of a scene; b) blurring said first image by a fixed amount in a pre-determined number of directions (B0,B90,B180,B270) to provide a number of blurred versions of said first image; c) obtaining a second successive image (22-A) of the same scene; d) determining a pixel-by-pixel motion vector indicating motion between the first image and at least the second image, said motion vector comprising a motion magnitude and a motion direction for each pixel of the first image; e) applying the motion vector to the pixels of the first image, including for each pixel: determining (17-A) according to the motion vector for the pixel a blending component corresponding to each blurred version of said first image; and combining (17-B) corresponding pixel values of said first image and each of said blurred versions of said first image according to said blending components to provide a blurred first image; determining (17-A) according to the motion vector for the pixel a blending component corresponding to each blurred version of said first image; and combining (17-B) corresponding pixel values of said first image and each of said blurred versions of said first image according to said blending components to provide a blurred first image; f) repeating steps a) to e) for successively acquired images in said stream; and g) encoding said sequence of blurred images in a video stream.
Method for transmission of content, executed by a content transmission device , comprising: - receiving (S1), from a client device , a content request (RQ) specifying a requested content (C) and at least one content reception deadline (DL) in an application layer part, - encapsulating the requested content in a plurality of successive TCP segments, and - sending (S3) the successive TCP segments to the client device by applying a congestion avoidance mechanism using a congestion window (cwnd), characterized in that said congestion window (cwnd) is determined by: - determining a minimum bitrate required for transmitting the requested content to the client device by the content reception deadline, - determining a round-trip time between said content transmission device and said client device, and - setting said congestion window (cwnd) equal to or greater than the product of said minimum bitrate and said round-trip time. - receiving (S1), from a client device , a content request (RQ) specifying a requested content (C) and at least one content reception deadline (DL) in an application layer part, - encapsulating the requested content in a plurality of successive TCP segments, and - sending (S3) the successive TCP segments to the client device by applying a congestion avoidance mechanism using a congestion window (cwnd), characterized in that said congestion window (cwnd) is determined by: - determining a minimum bitrate required for transmitting the requested content to the client device by the content reception deadline, - determining a round-trip time between said content transmission device and said client device, and - setting said congestion window (cwnd) equal to or greater than the product of said minimum bitrate and said round-trip time. - determining a minimum bitrate required for transmitting the requested content to the client device by the content reception deadline, - determining a round-trip time between said content transmission device and said client device, and - setting said congestion window (cwnd) equal to or greater than the product of said minimum bitrate and said round-trip time.
A surgical instrument , comprising: a housing comprising an electric motor ; a shaft extending from said housing , wherein said shaft comprises a frame ; an end effector , comprising: a first jaw ; a second jaw , wherein said first jaw is rotatable relative to said second jaw ; a staple cartridge comprising staples removably stored therein; and an anvil configured to deform said staples; a closure system configured to move said first jaw toward said second jaw during a closure stroke; an articulation joint rotatably connecting said end effector to said shaft ; an articulation system configured to articulate said end effector relative to said shaft ; a firing system operably engaged with said electric motor , wherein said firing system is configured to eject said staples from said staple cartridge during a staple firing stroke; a first rotatable member configured to selectively transmit motion from said firing system to said articulation system ; and a second rotatable member rotatably mounted to said frame , wherein said second rotatable member is operably engaged with said articulation system , and wherein said closure system is configured to engage said second rotatable member during said closure stroke to lock said articulation system in place and prevent the articulation of said end effector ; characterised in that the articulation system comprises an articulation link rotatably pinned to the end effector and an articulation actuator rotatably pinned to the articulation link . a housing comprising an electric motor ; a shaft extending from said housing , wherein said shaft comprises a frame ; an end effector , comprising: a first jaw ; a second jaw , wherein said first jaw is rotatable relative to said second jaw ; a staple cartridge comprising staples removably stored therein; and an anvil configured to deform said staples; a first jaw ; a second jaw , wherein said first jaw is rotatable relative to said second jaw ; a staple cartridge comprising staples removably stored therein; and an anvil configured to deform said staples; a closure system configured to move said first jaw toward said second jaw during a closure stroke; an articulation joint rotatably connecting said end effector to said shaft ; an articulation system configured to articulate said end effector relative to said shaft ; a firing system operably engaged with said electric motor , wherein said firing system is configured to eject said staples from said staple cartridge during a staple firing stroke; a first rotatable member configured to selectively transmit motion from said firing system to said articulation system ; and a second rotatable member rotatably mounted to said frame , wherein said second rotatable member is operably engaged with said articulation system , and wherein said closure system is configured to engage said second rotatable member during said closure stroke to lock said articulation system in place and prevent the articulation of said end effector ; characterised in that the articulation system comprises an articulation link rotatably pinned to the end effector and an articulation actuator rotatably pinned to the articulation link .
A system for growing and harvesting cells, comprising: a. a bioreactor comprising a vessel, said vessel comprising a first compartment, said vessel further comprising a second compartment positionable below said first compartment, said second compartment defined between a first perforated structure and a second perforated structure disposed above the first perforated structure, said second perforated structure moveably coupled to the vessel; b. a plurality of carriers; c. one or more support members coupled to the second perforated structure, the support member(s) extending upward from the second perforated structure and through a port in an upper plate of the vessel; and d. a locking element that engages said upper plate and said support member(s) and locks said second perforated structure in position in said vessel, wherein: said bioreactor is configured to seed cells in said first compartment, while said plurality of carriers are disposed in said second compartment; each of said carriers comprises a body, said body comprising one or more two-dimensional surfaces extending inwardly from a periphery of the body towards an interior of the body; and said bioreactor is configured to incubate said cells together with said carriers in said bioreactor under conditions compatible with growth and survival of said cells. a. a bioreactor comprising a vessel, said vessel comprising a first compartment, said vessel further comprising a second compartment positionable below said first compartment, said second compartment defined between a first perforated structure and a second perforated structure disposed above the first perforated structure, said second perforated structure moveably coupled to the vessel; b. a plurality of carriers; c. one or more support members coupled to the second perforated structure, the support member(s) extending upward from the second perforated structure and through a port in an upper plate of the vessel; and d. a locking element that engages said upper plate and said support member(s) and locks said second perforated structure in position in said vessel, said bioreactor is configured to seed cells in said first compartment, while said plurality of carriers are disposed in said second compartment; each of said carriers comprises a body, said body comprising one or more two-dimensional surfaces extending inwardly from a periphery of the body towards an interior of the body; and said bioreactor is configured to incubate said cells together with said carriers in said bioreactor under conditions compatible with growth and survival of said cells.