mhurhangee/patent-ind-claim-en huggingface dataset:
A computer implemented method comprising: determining , using a power manager, a sequence of phases corresponding to an application comprising tasks for execution on a node comprising a computing system, the sequence corresponding to a time interval, wherein the time interval is associated with an energy budget given by a product of a power cap and the time interval, wherein the power cap defines a maximum average power that can be used by the computing system; for each phase, determining a power scaling comprising a measured response in runtime to an increase or decrease in power distributed to a plurality of power domains in the node; based on the power scaling for each phase, determining a temporal power distribution between the phases in the sequence to improve runtime performance of the application by the node by distributing power to the respective phases of the sequence such that a total energy summed across all phases of the sequence matches the energy budget and yet permits temporary violation by at least one of the phases of the sequence of phases of the power cap, wherein the average power distributed to the phases over the time interval does not exceed the power cap. determining , using a power manager, a sequence of phases corresponding to an application comprising tasks for execution on a node comprising a computing system, the sequence corresponding to a time interval, wherein the time interval is associated with an energy budget given by a product of a power cap and the time interval, wherein the power cap defines a maximum average power that can be used by the computing system; for each phase, determining a power scaling comprising a measured response in runtime to an increase or decrease in power distributed to a plurality of power domains in the node; based on the power scaling for each phase, determining a temporal power distribution between the phases in the sequence to improve runtime performance of the application by the node by distributing power to the respective phases of the sequence such that a total energy summed across all phases of the sequence matches the energy budget and yet permits temporary violation by at least one of the phases of the sequence of phases of the power cap, wherein the average power distributed to the phases over the time interval does not exceed the power cap.
A pegylated carfilzomib compound having a structure of formula I or a pharmaceutically acceptable salt thereof, wherein R 1 is C 1-10 alkyl or C 3-7 cycloalkyl; each R 2 , independently, is C 1-6 alkyl, -OCH 3 or halogen; o is an integer selected from 0, 1, 2 or 3; linker is a moiety having the structure of wherein n is an integer selected from 1, 2, 3 or 4; q is an integer selected from 1, 2, 3, 4, 5, 6, 7, 8 or 9; r is an integer selected from 0, 1, 2, 3, 4 or 5; and PEG is a polyethylene glycol polymeric moiety having a molecular weight ranging from about 500 to about 20,000. R 1 is C 1-10 alkyl or C 3-7 cycloalkyl; each R 2 , independently, is C 1-6 alkyl, -OCH 3 or halogen; o is an integer selected from 0, 1, 2 or 3; linker is a moiety having the structure of wherein n is an integer selected from 1, 2, 3 or 4; q is an integer selected from 1, 2, 3, 4, 5, 6, 7, 8 or 9; r is an integer selected from 0, 1, 2, 3, 4 or 5; and n is an integer selected from 1, 2, 3 or 4; q is an integer selected from 1, 2, 3, 4, 5, 6, 7, 8 or 9; r is an integer selected from 0, 1, 2, 3, 4 or 5; and PEG is a polyethylene glycol polymeric moiety having a molecular weight ranging from about 500 to about 20,000.
A milking robot for completely automatically performing a teat-related action, in particular milking, on a dairy animal , comprising - a frame with an arm structure (5, 6, 7-1, 7-2, 7-3) which is movable with respect thereto and comprising a robot arm and one or more actuators for moving the arm structure, in particular the robot arm, - a teat cup , in particular a milking cup, - a flexible connecting means connected between the teat cup and the arm structure, - a retracting device for pulling the teat cup back onto the arm structure by means of the connecting means, - a vacuum device for applying a milking vacuum to the teat cup, - a control unit for controlling the milking robot, - at least one of an arm structure position-determining device for determining a measured value relating to an arm structure position, and an arm structure acceleration-determining device for determining a measured value relating to an arm structure acceleration, characterized in that the control unit is configured to control the retracting device for pulling back the teat cup onto the arm structure and/or to control the vacuum device for closing off the milking vacuum from the teat cup, if the determined measured value satisfies a predetermined measured value criterion. - a frame with an arm structure (5, 6, 7-1, 7-2, 7-3) which is movable with respect thereto and comprising a robot arm and one or more actuators for moving the arm structure, in particular the robot arm, - a teat cup , in particular a milking cup, - a flexible connecting means connected between the teat cup and the arm structure, - a retracting device for pulling the teat cup back onto the arm structure by means of the connecting means, - a vacuum device for applying a milking vacuum to the teat cup, - a control unit for controlling the milking robot, - at least one of an arm structure position-determining device for determining a measured value relating to an arm structure position, and an arm structure acceleration-determining device for determining a measured value relating to an arm structure acceleration,
A wind turbine , with a tower , a nacelle with a nacelle housing , which is placed on the tower , at least one cooling flap , which is configured to close an opening in or on an area of the wind turbine to be cooled, at least one temperature-dependent actuator , which is configured to activate and open the cooling flap as a function of temperature, so as to enable a heat compensation in the area to be cooled by means of the opening , wherein the temperature-dependent passive actuator can change its shape and/or its length without external electrical energy as a function of the temperature. a tower , a nacelle with a nacelle housing , which is placed on the tower , at least one cooling flap , which is configured to close an opening in or on an area of the wind turbine to be cooled, at least one temperature-dependent actuator , which is configured to activate and open the cooling flap as a function of temperature, so as to enable a heat compensation in the area to be cooled by means of the opening , wherein the temperature-dependent passive actuator can change its shape and/or its length without external electrical energy as a function of the temperature.
A method comprising: obtaining , at a computing system, a first set of depth information representing a scene from a first source and a second set of depth information representing the scene from a second source, wherein obtaining comprises: receiving the first set of depth information representing the scene from a single camera, wherein the first set of depth information corresponds to one or more dual pixel images that depict the scene; and receiving the second set of depth information representing the scene from a pair of stereo cameras, wherein the second set of depth information corresponds to one or more sets of stereo images that depict the scene; determining , at the computing system and using a neural network, a joint depth map that conveys respective depths for elements in the scene, wherein the neural network determines the joint depth map based on a combination of the first set of depth information and the second set of depth information; and modifying an image representing the scene based on the joint depth map , wherein modifying comprises applying a partial blur to one or more background portions of the image based on the joint depth map . obtaining , at a computing system, a first set of depth information representing a scene from a first source and a second set of depth information representing the scene from a second source, wherein obtaining comprises: receiving the first set of depth information representing the scene from a single camera, wherein the first set of depth information corresponds to one or more dual pixel images that depict the scene; and receiving the second set of depth information representing the scene from a pair of stereo cameras, wherein the second set of depth information corresponds to one or more sets of stereo images that depict the scene; receiving the first set of depth information representing the scene from a single camera, wherein the first set of depth information corresponds to one or more dual pixel images that depict the scene; and receiving the second set of depth information representing the scene from a pair of stereo cameras, wherein the second set of depth information corresponds to one or more sets of stereo images that depict the scene; determining , at the computing system and using a neural network, a joint depth map that conveys respective depths for elements in the scene, wherein the neural network determines the joint depth map based on a combination of the first set of depth information and the second set of depth information; and modifying an image representing the scene based on the joint depth map , wherein modifying comprises applying a partial blur to one or more background portions of the image based on the joint depth map .
A medical device comprising: a balloon; and a coating on at least a portion of the balloon, wherein the coating comprises an active agent, a biodegradable polymer and a cationic binding agent, and wherein the active agent is a plurality of macrolide immunosuppressive particles in at least 50% crystalline form and the active agent and cationic binding agent were mixed and deposited together on the device by an eSTAT coating process; the biodegradable polymer was applied by a RESS process; and wherein the device releases between 1% and 15% of the active agent and at least a portion of the biodegradable polymer to an artery upon inflation of the balloon in the artery in vivo; and wherein the cationic binding agent comprises at least one of: Polyarginine, Polyarginine 9-L-pArg, DEAE-Dextran (Diethylaminoethyl cellulose- Dextran), DMAB (Didodecyldimethylammonium bromide), PEI (Polyethyleneimine), TAB (Tetradodecylammonium bromide), and DMTAB (Dimethylditetradecylammonium bromide). a balloon; and a coating on at least a portion of the balloon, wherein the coating comprises an active agent, a biodegradable polymer and a cationic binding agent, and wherein the active agent is a plurality of macrolide immunosuppressive particles in at least 50% crystalline form and the active agent and cationic binding agent were mixed and deposited together on the device by an eSTAT coating process; the biodegradable polymer was applied by a RESS process; and wherein the device releases between 1% and 15% of the active agent and at least a portion of the biodegradable polymer to an artery upon inflation of the balloon in the artery in vivo; and wherein the cationic binding agent comprises at least one of: Polyarginine, Polyarginine 9-L-pArg, DEAE-Dextran (Diethylaminoethyl cellulose- Dextran), DMAB (Didodecyldimethylammonium bromide), PEI (Polyethyleneimine), TAB (Tetradodecylammonium bromide), and DMTAB (Dimethylditetradecylammonium bromide).
A pharmaceutical composition comprising a compound of formula I in a kernel, in particular 5 ± 1% by weight of the compound of formula I, more particular 5% by weight of the compound of formula I, further comprising the kernel consisting of: i. compound of formula I; ii. disintegrant; iii. filler; iv. glidant and v. lubricant; wherein, i) the disintegrant is croscarmellose sodium, in particular 5 ± 1 % by weight croscarmellose sodium, more particular 5% by weight croscarmellose sodium ii) the filler is mannitol and/or starch, in particular 85 ± 3% by weight filler, more particular 70% by weight mannitol and 15 % by weight starch, iii) the glidant is colloidal anhydrous silica, in particular 2 ± 1% by weight colloidal anhydrous silica, more particular 2% by weight colloidal anhydrous silica, and iv) the lubricant is sodium stearyl fumarate, in particular 3 ± 1% by weight sodium stearyl fumarate, more particular 3% by weight sodium stearyl fumarate. i. compound of formula I; ii. disintegrant; iii. filler; iv. glidant and v. lubricant; i) the disintegrant is croscarmellose sodium, in particular 5 ± 1 % by weight croscarmellose sodium, more particular 5% by weight croscarmellose sodium ii) the filler is mannitol and/or starch, in particular 85 ± 3% by weight filler, more particular 70% by weight mannitol and 15 % by weight starch, iii) the glidant is colloidal anhydrous silica, in particular 2 ± 1% by weight colloidal anhydrous silica, more particular 2% by weight colloidal anhydrous silica, and iv) the lubricant is sodium stearyl fumarate, in particular 3 ± 1% by weight sodium stearyl fumarate, more particular 3% by weight sodium stearyl fumarate.
Immunogens and tracers of structure I in which R is benzyl for the immunogens and either benzyl or isobutyl for the tracers; X 1 , and X 3 are H and X 2 is for the immunogens accm-S-Y- where accm is an antigenicity conferring carrier material that is a protein, polypeptide or protein fragment, in which S is attached to the accm preferably by an activating group and in which Y is a straight chain or substituted straight chain or branched alkyl group, preferably of 1-10 carbon atoms, optionally with a terminal heteroatom or functional group; for the tracers HRP-S-Y- where HRP is horseradish peroxidase, in which S is attached to HRP preferably by an activating group and in which Y is a straight chain or substituted straight chain or branched alkyl group, preferably of 1-10 carbon atoms, optionally with a terminal heteroatom or functional group. in which R is benzyl for the immunogens and either benzyl or isobutyl for the tracers; X 1 , and X 3 are H and X 2 is for the immunogens accm-S-Y- where accm is an antigenicity conferring carrier material that is a protein, polypeptide or protein fragment, in which S is attached to the accm preferably by an activating group and in which Y is a straight chain or substituted straight chain or branched alkyl group, preferably of 1-10 carbon atoms, optionally with a terminal heteroatom or functional group; for the tracers HRP-S-Y- where HRP is horseradish peroxidase, in which S is attached to HRP preferably by an activating group and in which Y is a straight chain or substituted straight chain or branched alkyl group, preferably of 1-10 carbon atoms, optionally with a terminal heteroatom or functional group.
Device for positioning sterile instruments, in particular puncture needles, injection needles or surgical probes, with respect to a patient, with a sheath which is sterile at least on its inner side and an instrument , wherein the sheath at least partially encloses the sterile instrument , and with at least one gas-tight passage mounted at the sheath , wherein the sterile instrument has at least one sterile instrument holder which passes through the passage to coupling parts and is movable in a controlled manner in at least two spatial directions by movement of the instrument holder outside the sheath , characterized in that the sheath has an annular adhesive surface , directed towards the patient (P), for fixing the sheath together with the instrument on an interventional site in a gas-tight manner.
A refrigerator, comprising: a main body cabinet forming a storage compartment; a door operable to open and close the storage compartment; an ice tray provided in the refrigerator capable of making ice cubes; an ice storage container receiving the ice cubes made by the ice tray , and having an ice outlet formed in a lower part thereof and a rear wall surface forming an angle of inclination (θ) with respect to a level surface; at least one rotating blade rotatingly moving the ice cubes discharged to the ice outlet ; a supporting blade shredding the ice cubes moved by the rotating blade , in cooperation with the at least one rotating blade ; and a driver including a gear assembly having a rotating shaft connected with a lower part of the at least one rotating blade and transmitting a driving force to the rotating blade , and a driving motor provided in a side of the gear assembly and supplying a driving force to the gear assembly , wherein the ice outlet is provided in the rear wall surface , wherein the ice cubes stored in the ice storage container are discharged from the ice storage container toward the at least one rotating blade through the ice outlet , and wherein the rotating blade and the supporting blade are provided in parallel with the inclined rear wall surface of the ice storage container . a main body cabinet forming a storage compartment; a door operable to open and close the storage compartment; an ice tray provided in the refrigerator capable of making ice cubes; an ice storage container receiving the ice cubes made by the ice tray , and having an ice outlet formed in a lower part thereof and a rear wall surface forming an angle of inclination (θ) with respect to a level surface; at least one rotating blade rotatingly moving the ice cubes discharged to the ice outlet ; a supporting blade shredding the ice cubes moved by the rotating blade , in cooperation with the at least one rotating blade ; and a driver including a gear assembly having a rotating shaft connected with a lower part of the at least one rotating blade and transmitting a driving force to the rotating blade , and a driving motor provided in a side of the gear assembly and supplying a driving force to the gear assembly , wherein the ice outlet is provided in the rear wall surface , wherein the ice cubes stored in the ice storage container are discharged from the ice storage container toward the at least one rotating blade through the ice outlet , and wherein the rotating blade and the supporting blade are provided in parallel with the inclined rear wall surface of the ice storage container .
A method of forming Mo-Si-B alloy powder comprising: preparing a mixture that includes Mo powder, Si 3 N 4 powder and BN powder; adding a polymer binder and liquid to the mixture to form a slurry; spray drying the slurry to form a spray dried powder containing Mo powder, Si 3 N 4 powder and BN powder particles; thermally treating the spray dried powder to remove the binder, alloy the powders of the spray dried powder, and remove carbon, nitrogen and oxygen atoms, wherein thermally treating the spray dried powder forms at least some partially sintered Mo-Si-B alloy powder pieces; milling the partially sintered Mo-Si-B alloy powder pieces in a milling container having contact surfaces composed of Mo-based material or lined and/or coated with Mo-based material to break down the pieces; and sieving the milled Mo-Si-B alloy powder pieces to reclaim the Mo-Si-B alloy powder, wherein milling the partially sintered Mo-Si-B alloy powder pieces comprises operation of a milling media composed of Mo-based material or lined and/or coated with Mo-based material that breaks down the pieces in the milling container. preparing a mixture that includes Mo powder, Si 3 N 4 powder and BN powder; adding a polymer binder and liquid to the mixture to form a slurry; spray drying the slurry to form a spray dried powder containing Mo powder, Si 3 N 4 powder and BN powder particles; thermally treating the spray dried powder to remove the binder, alloy the powders of the spray dried powder, and remove carbon, nitrogen and oxygen atoms, wherein thermally treating the spray dried powder forms at least some partially sintered Mo-Si-B alloy powder pieces; milling the partially sintered Mo-Si-B alloy powder pieces in a milling container having contact surfaces composed of Mo-based material or lined and/or coated with Mo-based material to break down the pieces; and sieving the milled Mo-Si-B alloy powder pieces to reclaim the Mo-Si-B alloy powder, wherein milling the partially sintered Mo-Si-B alloy powder pieces comprises operation of a milling media composed of Mo-based material or lined and/or coated with Mo-based material that breaks down the pieces in the milling container.
A policy determining method, comprising: obtaining , by a policy control network element, policy information from a data analytics network element; and determining , by the policy control network element, an execution policy of a service based on the policy information; receiving, by the policy control network element, a service type that is of a to-be-sent service and that is sent from a session management network element; and the determining , by the policy control network element, an execution policy of a service based on the policy information comprises: determining, by the policy control network element, an execution policy of a service of the service type based on the policy information; wherein the method further comprises: receiving , by the policy control network element, updated policy information sent from the data analytics network element; and determining , by the policy control network element based on the updated policy information, an updated execution policy of the service. obtaining , by a policy control network element, policy information from a data analytics network element; and determining , by the policy control network element, an execution policy of a service based on the policy information; receiving, by the policy control network element, a service type that is of a to-be-sent service and that is sent from a session management network element; and the determining , by the policy control network element, an execution policy of a service based on the policy information comprises: determining, by the policy control network element, an execution policy of a service of the service type based on the policy information; wherein the method further comprises: receiving , by the policy control network element, updated policy information sent from the data analytics network element; and determining , by the policy control network element based on the updated policy information, an updated execution policy of the service. determining, by the policy control network element, an execution policy of a service of the service type based on the policy information; wherein the method further comprises: receiving , by the policy control network element, updated policy information sent from the data analytics network element; and determining , by the policy control network element based on the updated policy information, an updated execution policy of the service. receiving , by the policy control network element, updated policy information sent from the data analytics network element; and determining , by the policy control network element based on the updated policy information, an updated execution policy of the service.
A molding material consisting of saponified ethylene-vinyl ester-based copolymer pellets, the pellets comprising a first saponified ethylene-vinyl ester-based copolymer pellet (A1) having approximately circular or elliptical cross section in any arbitrary direction, and a second saponified ethylene-vinyl ester-based copolymer pellet (A2) having a cylindrical shape, wherein the ratio (A1/A2) in weight of the first saponified ethylene-vinyl ester-based copolymer pellet (A1) to the second saponified ethylene-vinyl ester-based copolymer pellet (A2) is from 99/1 to 20/80, wherein a conical pile of the pellets formed by pouring the pellets to a circular glass container having 9.5 cm in inner diameter and 2 cm in height through a funnel having a tip of 8 mm in diameter set 10 cm upward from the upper face of the container until a pellet slops over the container has an angle of repose defined as the internal angle between the horizontal plane and the talus surface of the conical pile of pellets of 32 to 36°.