mhurhangee/patent-ind-claim-en huggingface dataset:
An ultrasound system comprising a processor arrangement and a display device under control of the processor arrangement, wherein the processor arrangement is adapted to: receive a sequence of 2-D ultrasound image frames of a prenatal entity from an ultrasound probe , said sequence defining a sliding window of 2-D ultrasound image frames along a translation direction across said prenatal entity, and, for each image frame in said sequence: control the display device to display the received image frame; attempt to segment the image frame for recognition of an anatomical feature of interest of said prenatal entity in said image frame; and accept the image frame for further processing upon recognition of said feature, said further processing comprising: determine a geometric property of the recognized anatomical feature of interest for each accepted image frame; and control the display device to display the determined geometric properties of the accepted image frames in said sequence with each displayed image frame, wherein determination of the geometric property comprises determination of a dimension of the recognized anatomical feature. control the display device to display the received image frame; attempt to segment the image frame for recognition of an anatomical feature of interest of said prenatal entity in said image frame; and accept the image frame for further processing upon recognition of said feature, said further processing comprising: determine a geometric property of the recognized anatomical feature of interest for each accepted image frame; and control the display device to display the determined geometric properties of the accepted image frames in said sequence with each displayed image frame, wherein determination of the geometric property comprises determination of a dimension of the recognized anatomical feature. determine a geometric property of the recognized anatomical feature of interest for each accepted image frame; and control the display device to display the determined geometric properties of the accepted image frames in said sequence with each displayed image frame, wherein determination of the geometric property comprises determination of a dimension of the recognized anatomical feature.
A high pressure diesel fuel pump comprising a drivetrain assembly within a drivetrain housing and a pumping assembly, the drivetrain assembly comprising a cam mounted in a cambox , a tappet member arranged for reciprocal movement with the cam within a tappet chamber , and a spring mounted in a spring chamber acting on an upper surface of the tappet member , the pumping assembly comprising a pump housing and a plunger mounted within a bore formed in the pump housing for reciprocal movement along a pumping axis (A-A') under the influence of the reciprocating tappet member , wherein the drivetrain housing comprises a vent arranged to connect said spring chamber and/or said tappet chamber with the cambox and a low pressure inlet for delivery of fluid to the drivetrain assembly, characterised in that the low pressure inlet is arranged to feed into the spring chamber and wherein the inlet is located within 90° rotation of the vent around the pumping axis (A-A'), wherein the inlet comprises an internal opening into the spring chamber and, wherein the internal opening is disposed towards a bottom end of the spring chamber . wherein the inlet comprises an internal opening into the spring chamber and, wherein the internal opening is disposed towards a bottom end of the spring chamber .
Sealing cap for sanitary pipes, which comprises a gasket for watertight sealing of an open end of the sanitary pipe when the sealing cap is fitted in the open end, characterized in that the sealing cap comprises a straight cylindrical part and an adjoining conical portion that tapers, wherein the conical portion becomes narrower the further away from the straight cylindrical part .
Use of a magnetic paste for through-hole filling in a circuit board, wherein the magnetic paste comprises: magnetic powder (A); an epoxy resin (B); a dispersant (C); and a curing agent (D), wherein the dispersant (C) has a polyester skeleton represented by a formula below, wherein R is independently a divalent hydrocarbon group having 2 to 10 carbon atoms, and n is an integer of 2 to 1,000. magnetic powder (A); an epoxy resin (B); a dispersant (C); and a curing agent (D), wherein the dispersant (C) has a polyester skeleton represented by a formula below, wherein R is independently a divalent hydrocarbon group having 2 to 10 carbon atoms, and n is an integer of 2 to 1,000.
A multi-hop data transmission method, comprising: obtaining , by a primary base station, route configuration information, wherein the route configuration information indicates a first data transmission path between a terminal device and a serving gateway, the first data transmission path comprises at least two route base stations, and the at least two route base stations comprise a secondary base station for the terminal device, wherein each route base station is a radio access device; and sending , by the primary base station, the route configuration information to the at least two route base stations; wherein the sending , by the primary base station, the route configuration information to the at least two route base stations is characterized by comprising the step of: sequentially sending, by the primary base station, the route configuration information to the at least two route base stations in a direction opposite to a direction in which data passes through the at least two route base stations in the first data transmission path. obtaining , by a primary base station, route configuration information, wherein the route configuration information indicates a first data transmission path between a terminal device and a serving gateway, the first data transmission path comprises at least two route base stations, and the at least two route base stations comprise a secondary base station for the terminal device, wherein each route base station is a radio access device; and sending , by the primary base station, the route configuration information to the at least two route base stations; wherein the sending , by the primary base station, the route configuration information to the at least two route base stations is characterized by comprising the step of: sequentially sending, by the primary base station, the route configuration information to the at least two route base stations in a direction opposite to a direction in which data passes through the at least two route base stations in the first data transmission path.
A sensor comprising: • a housing defining an internal volume that is internal to the housing; • a movable part situated inside said internal volume of the housing; • detector means for detecting a movement of said movable part relative to the housing ; • transfer means passing through a first opening in the housing and arranged to act from a first external zone external to the housing to cause said movable part situated inside said internal volume to move; and • first sealing means arranged relative to the housing and to the transfer means to oppose fluid passing from the first external zone external to the housing towards said internal volume of the housing via said first opening of the housing, the sensor being characterized in that : • the housing further includes a second opening extending between said internal volume of the housing and a second external zone external to the housing; and • second sealing means arranged to oppose fluid passing via said second opening , at least some of the second sealing means being adapted to break to allow fluid to pass, between the internal volume and the second external zone , as soon as the internal pressure in the internal volume exceeds the external pressure in the second external zone by a first predetermined pressure difference. • a housing defining an internal volume that is internal to the housing; • a movable part situated inside said internal volume of the housing; • detector means for detecting a movement of said movable part relative to the housing ; • transfer means passing through a first opening in the housing and arranged to act from a first external zone external to the housing to cause said movable part situated inside said internal volume to move; and • first sealing means arranged relative to the housing and to the transfer means to oppose fluid passing from the first external zone external to the housing towards said internal volume of the housing via said first opening of the housing, the sensor being characterized in that : • the housing further includes a second opening extending between said internal volume of the housing and a second external zone external to the housing; and • second sealing means arranged to oppose fluid passing via said second opening , at least some of the second sealing means being adapted to break to allow fluid to pass, between the internal volume and the second external zone , as soon as the internal pressure in the internal volume exceeds the external pressure in the second external zone by a first predetermined pressure difference.
An oncolytic herpes simplex virus encoding a functional ICP47 or ICP6 gene for use in a method of treating cancer in a human subject, the method comprising administering intravenously, intra-arterially, intracavity or intratumorally more than one dose of the oncolytic herpes simplex virus to the subject wherein the oncolytic herpes simplex virus is a mutant of an HSV-1 strain 17, and further comprising administering a therapeutically effective amount of an immune checkpoint inhibitor.
A method for stabilizing (S260) simultaneously, using an optical resonator (100; 890a; 890b) formed by two mirrors (120, 140; 891, 894), N lasers in order to output stabilized light of N respective mutually different predetermined frequencies f i S , i = 1, ... , N , the method including the steps of: adjusting (S200) a distance between the two mirrors (120, 140; 891, 894) to a stabilization length, characterized by that at the stabilization length: - there is, for each predetermined frequency f i S , a resonant frequency f i R of the optical resonator (100; 890a; 890b) for which a difference between the predetermined frequency f i S and the resonant frequency f i R is smaller than a predetermined target value, and - the optical resonator (100; 890a; 890b) has further a resonant frequency that corresponds to a frequency of light of a reference laser, wherein the reference laser has a higher frequency stability than the N lasers; feeding (S240) light from each of the N lasers to the optical resonator (100; 890a; 890b), thereby generating N error signals (775a-775d); stabilizing the distance between the two mirrors (120, 140; 891, 894) to the stabilization length by locking the distance to the reference laser; and stabilizing (S260) simultaneously the N lasers based on the N error signals (775a-775d). adjusting (S200) a distance between the two mirrors (120, 140; 891, 894) to a stabilization length, characterized by that at the stabilization length: - there is, for each predetermined frequency f i S , a resonant frequency f i R of the optical resonator (100; 890a; 890b) for which a difference between the predetermined frequency f i S and the resonant frequency f i R is smaller than a predetermined target value, and - the optical resonator (100; 890a; 890b) has further a resonant frequency that corresponds to a frequency of light of a reference laser, wherein the reference laser has a higher frequency stability than the N lasers; - there is, for each predetermined frequency f i S , a resonant frequency f i R of the optical resonator (100; 890a; 890b) for which a difference between the predetermined frequency f i S and the resonant frequency f i R is smaller than a predetermined target value, and - the optical resonator (100; 890a; 890b) has further a resonant frequency that corresponds to a frequency of light of a reference laser, wherein the reference laser has a higher frequency stability than the N lasers; feeding (S240) light from each of the N lasers to the optical resonator (100; 890a; 890b), thereby generating N error signals (775a-775d); stabilizing the distance between the two mirrors (120, 140; 891, 894) to the stabilization length by locking the distance to the reference laser; and stabilizing (S260) simultaneously the N lasers based on the N error signals (775a-775d).
A quantum computing circuit, comprising: - a first chip, with at least one qubit thereon, and - a second chip, with at least other quantum circuit element than qubit thereon; wherein: - said first chip and said second chip are stacked together in a flip-chip configuration and attached to each other with bump bonding that comprises bonding bumps; characterized in that : - said second chip comprises a quantum circuit refrigerator, and - said quantum computing circuit comprises a controllable connection between said quantum circuit refrigerator and at least one qubit on said first chip for allowing said quantum circuit refrigerator to be controllably used to reset the state of said at least one qubit. - a first chip, with at least one qubit thereon, and - a second chip, with at least other quantum circuit element than qubit thereon; - said first chip and said second chip are stacked together in a flip-chip configuration and attached to each other with bump bonding that comprises bonding bumps; - said second chip comprises a quantum circuit refrigerator, and - said quantum computing circuit comprises a controllable connection between said quantum circuit refrigerator and at least one qubit on said first chip for allowing said quantum circuit refrigerator to be controllably used to reset the state of said at least one qubit.
A cooking appliance comprising: a cooking chamber in which food is accommodated; a machine room separated from the cooking chamber ; an exhaust assembly configured to discharge fluids inside the machine room to the outside; and a sensor assembly provided in the machine room , characterized in that the sensor assembly is configured to measure an amount of steam of fluids which flow from the cooking chamber to the machine room by driving of the exhaust assembly , further comprising a control unit which is configured to determine a completion point of cooking of the food based on a change rate of the amount of steam, wherein the control unit is configured to calculate the change rate of the amount of steam according to a preset calculation period. a cooking chamber in which food is accommodated; a machine room separated from the cooking chamber ; an exhaust assembly configured to discharge fluids inside the machine room to the outside; and a sensor assembly provided in the machine room , characterized in that the sensor assembly is configured to measure an amount of steam of fluids which flow from the cooking chamber to the machine room by driving of the exhaust assembly , further comprising a control unit which is configured to determine a completion point of cooking of the food based on a change rate of the amount of steam, wherein the control unit is configured to calculate the change rate of the amount of steam according to a preset calculation period.
A shelf-stable composition comprising: i) a synthetic gene network, which is an engineered composition that comprises at least one nucleic acid construct or material operably linked to a promoter and that can perform a sensing function; and ii) a cell-free system comprising components sufficient for a coupled transcription/translation reaction, the components comprising RNA polymerase, ribonucleotides, ribosomes, amino acids, aminoacyl transfer RNAs, translation factors, and a buffer system, wherein said synthetic gene network and said cell-free system are lyophilized on a porous substrate, wherein the porous substrate comprises paper, quartz micro fiber, cellulose acetate, silk, or aluminum oxide, which contains pores or interstices via which a liquid composition may penetrate the substrate surface, such that the synthetic gene network and cell free system are partially or completely embedded in the porous substrate and are substantially free of water, and wherein said synthetic gene network and said cell-free system are active for said coupled transcription/translation reaction upon re-hydration. i) a synthetic gene network, which is an engineered composition that comprises at least one nucleic acid construct or material operably linked to a promoter and that can perform a sensing function; and ii) a cell-free system comprising components sufficient for a coupled transcription/translation reaction, the components comprising RNA polymerase, ribonucleotides, ribosomes, amino acids, aminoacyl transfer RNAs, translation factors, and a buffer system, wherein said synthetic gene network and said cell-free system are lyophilized on a porous substrate, wherein the porous substrate comprises paper, quartz micro fiber, cellulose acetate, silk, or aluminum oxide, which contains pores or interstices via which a liquid composition may penetrate the substrate surface, such that the synthetic gene network and cell free system are partially or completely embedded in the porous substrate and are substantially free of water, and wherein said synthetic gene network and said cell-free system are active for said coupled transcription/translation reaction upon re-hydration.
A service processing method, comprising: obtaining a client service (S101), wherein the client service has a plurality of code blocks; mapping the plurality of code blocks of the client service to a flexible Ethernet, FlexE, subslot (S102), wherein the FlexE subslot is obtained from at least two FlexE subslots into which a FlexE slot is divided, the FlexE subslot is defined by using, as a period, bandwidth required by the client service or a quantity of the at least two FlexE subslots; generating a FlexE subslot overhead (S103), wherein the FlexE subslot overhead comprises a quantity of FlexE subslots and information about the client service carried in the FlexE subslot; and sending (SI04), through at least one physical channel, the client service mapped to the FlexE subslot and the FlexE subslot overhead. obtaining a client service (S101), wherein the client service has a plurality of code blocks; mapping the plurality of code blocks of the client service to a flexible Ethernet, FlexE, subslot (S102), wherein the FlexE subslot is obtained from at least two FlexE subslots into which a FlexE slot is divided, the FlexE subslot is defined by using, as a period, bandwidth required by the client service or a quantity of the at least two FlexE subslots; generating a FlexE subslot overhead (S103), wherein the FlexE subslot overhead comprises a quantity of FlexE subslots and information about the client service carried in the FlexE subslot; and sending (SI04), through at least one physical channel, the client service mapped to the FlexE subslot and the FlexE subslot overhead.
A method of preparing an antibacterial superabsorbent resin, comprising: 1) drying and pulverizing a hydrogel polymer, and then classifying into a fine powder having a particle size of less than 150 μm and a base polymer having a particle size of 150 to 850 μm; 2) mixing the fine powder, water and a copper-based antibacterial agent, thus preparing a fine-powder regranulate; 3) passing the fine-powder regranulate through a chopper and then performing drying and pulverizing; and 4) classifying the pulverized fine-powder regranulate into a superabsorbent resin having a particle size of 150 to 850 μm, thus obtaining the superabsorbent resin. 1) drying and pulverizing a hydrogel polymer, and then classifying into a fine powder having a particle size of less than 150 μm and a base polymer having a particle size of 150 to 850 μm; 2) mixing the fine powder, water and a copper-based antibacterial agent, thus preparing a fine-powder regranulate; 3) passing the fine-powder regranulate through a chopper and then performing drying and pulverizing; and 4) classifying the pulverized fine-powder regranulate into a superabsorbent resin having a particle size of 150 to 850 μm, thus obtaining the superabsorbent resin.
Pneumatic vehicle tyre having a first sealant ply at least on the inner face opposite the tread , where at least one textile ply comprising fibres is disposed radially inward atop the first sealant ply , and where a second sealant ply is disposed radially inward atop the textile ply , characterized in that the textile ply is bonded to the first sealant ply and the second sealant ply , where the tensile strength according to ISO 527 of the textile ply is greater in each case than the tensile strength of the first sealant ply and the second sealant ply , and the elongation at break according to ISO 527 of the first sealant ply and the second sealant ply is simultaneously greater than the elongation at break of the textile ply . and where a second sealant ply is disposed radially inward atop the textile ply , characterized in that the textile ply is bonded to the first sealant ply and the second sealant ply , where the tensile strength according to ISO 527 of the textile ply is greater in each case than the tensile strength of the first sealant ply and the second sealant ply , and the elongation at break according to ISO 527 of the first sealant ply and the second sealant ply is simultaneously greater than the elongation at break of the textile ply .
A wind tunnel for stable sustained human flight for research or recreation, comprising - a tunnel comprising a first portion having a first central axis (A) and a second portion having a second central axis (B), - wherein the second portion is a flight chamber allowing humans to achieve sustained flight therein, - said first central axis (A) and said second central axis (B) being arranged at a first angle with respect to each other, and - at least one fan for creating an air flow in the second portion, characterised in that said second central axis (B) is at a second angle with respect to a horizontal plane, said second angle being 15°-60°, wherein the flight chamber allows humans to achieve sustained gliding flight therein. - a tunnel comprising a first portion having a first central axis (A) and a second portion having a second central axis (B), - wherein the second portion is a flight chamber allowing humans to achieve sustained flight therein, - said first central axis (A) and said second central axis (B) being arranged at a first angle with respect to each other, and - at least one fan for creating an air flow in the second portion, characterised in that said second central axis (B) is at a second angle with respect to a horizontal plane, said second angle being 15°-60°,