mhurhangee/ep-ind-claims huggingface dataset:
A load balancing method, applied to a computer system that comprises at least three computer devices, wherein each computer device comprises a central processing unit and a memory, the at least three computer devices comprise a first computer device, the first computer device is used as a cloud management platform, computer devices other than the first computer device in the at least three computer devices are used as service computer devices, a virtual machine that initiates a service runs on each service computer device, and the service is a load balancing service; and comprising: obtaining, by the first computer device, configuration information of a load balancer that is to be created on each service computer device, wherein the configuration information of the load balancer comprises an identifier of the load balancer and a virtual IP address VIP of the load balancer, and the VIP of the load balancer indicates the load balancing service; creating, by the first computer device, a local load balancer of each service computer device on each service computer device according to the configuration information of the load balancer that is to be created on each service computer device; and configuring, by the first computer device, a forwarding mode of the load balancing service on each service computer device, wherein in the forwarding mode, a service packet of the load balancing service initiated by the virtual machine that is of each service computer device and that initiates the service is directionally forwarded to the local load balancer, so that the local load balancer of each service computer device performs load balancing processing on the service packet initiated by the virtual machine that is of the service computer device and that initiates the service. obtaining, by the first computer device, configuration information of a load balancer that is to be created on each service computer device, wherein the configuration information of the load balancer comprises an identifier of the load balancer and a virtual IP address VIP of the load balancer, and the VIP of the load balancer indicates the load balancing service; creating, by the first computer device, a local load balancer of each service computer device on each service computer device according to the configuration information of the load balancer that is to be created on each service computer device; and configuring, by the first computer device, a forwarding mode of the load balancing service on each service computer device, wherein in the forwarding mode, a service packet of the load balancing service initiated by the virtual machine that is of each service computer device and that initiates the service is directionally forwarded to the local load balancer, so that the local load balancer of each service computer device performs load balancing processing on the service packet initiated by the virtual machine that is of the service computer device and that initiates the service.
An aircraft (1; 3) comprising: a fuselage (11; 31); a first propulsion mounting spar (12a,b); a first propulsion unit (131; 33a,b) mounted to the fuselage (11; 31) by the first propulsion mounting spar (12a,b); a first tiltable wing (14a,b; 34a,b) spaced apart from the first propulsion mounting spar (12a,b), wherein the first tiltable wing (14a,b; 34a,b) is disposed in the wake from the first propulsion unit (131; 33a,b) and arranged to tilt to vary the angle of attack of the first tiltable wing (14a,b; 34a,b); a further propulsion mounting spar (12c,d) aft of the first propulsion mounting spar (12a,b); a further propulsion unit (131; 33c,d) mounted to the fuselage (11; 31) by the further propulsion mounting spar (12c,d); and a further tiltable wing (14c,d; 34c,d) spaced apart from the further propulsion mounting spar (12c,d), wherein the further tiltable wing (14c,d; 34c,d) is disposed in the wake from the further propulsion unit (131; 33c,d) and arranged to tilt to vary the angle of attack of the further tiltable wing (14c,d; 34c,d), characterized in that at least one of the first propulsion mounting spar (12a,b) and further propulsion mounting spar (12c,d) do not comprise a wing. a fuselage (11; 31); a first propulsion mounting spar (12a,b); a first propulsion unit (131; 33a,b) mounted to the fuselage (11; 31) by the first propulsion mounting spar (12a,b); a first tiltable wing (14a,b; 34a,b) spaced apart from the first propulsion mounting spar (12a,b), wherein the first tiltable wing (14a,b; 34a,b) is disposed in the wake from the first propulsion unit (131; 33a,b) and arranged to tilt to vary the angle of attack of the first tiltable wing (14a,b; 34a,b); a further propulsion mounting spar (12c,d) aft of the first propulsion mounting spar (12a,b); a further propulsion unit (131; 33c,d) mounted to the fuselage (11; 31) by the further propulsion mounting spar (12c,d); and a further tiltable wing (14c,d; 34c,d) spaced apart from the further propulsion mounting spar (12c,d), wherein the further tiltable wing (14c,d; 34c,d) is disposed in the wake from the further propulsion unit (131; 33c,d) and arranged to tilt to vary the angle of attack of the further tiltable wing (14c,d; 34c,d), characterized in that at least one of the first propulsion mounting spar (12a,b) and further propulsion mounting spar (12c,d) do not comprise a wing.
A method for manufacturing a sheet of paper from a pulp, said pulp being derived from a mixture of natural and/or synthetic fibers, water, and at least one aqueous dispersion and/or suspension of at least one mineral matter, characterized in that said dispersion and/or suspension contains, as a steric dispersing agent of said mineral matter, at least one copolymer consisting: a) of at least one vinyl monomer, b) and of at least one non-ionic monomer of formula: in which: - m and p represent a number of alkylene oxide units less than or equal to 150, - n represents a number of ethylene oxide units less than or equal to 150, - q represents an integer at least equal to 1 and such that 5 ≤ (m+n+p)q ≤ 150, and preferentially such that 15 ≤ (m+n+p)q ≤ 120, - R 1 represents hydrogen or the methyl or ethyl radical, - R 2 represents hydrogen or the methyl or ethyl radical, - R represents a radical containing an unsaturated polymerizable function, belonging to the group of vinyls, - R' represents hydrogen or a hydrocarbon radical with 1 to 4 carbon atoms, R' being preferentially the methyl radical, or a mixture of several monomers of formula. a) of at least one vinyl monomer, b) and of at least one non-ionic monomer of formula: in which: - m and p represent a number of alkylene oxide units less than or equal to 150, - n represents a number of ethylene oxide units less than or equal to 150, - q represents an integer at least equal to 1 and such that 5 ≤ (m+n+p)q ≤ 150, and preferentially such that 15 ≤ (m+n+p)q ≤ 120, - R 1 represents hydrogen or the methyl or ethyl radical, - R 2 represents hydrogen or the methyl or ethyl radical, - R represents a radical containing an unsaturated polymerizable function, belonging to the group of vinyls, - R' represents hydrogen or a hydrocarbon radical with 1 to 4 carbon atoms, R' being preferentially the methyl radical, - m and p represent a number of alkylene oxide units less than or equal to 150, - n represents a number of ethylene oxide units less than or equal to 150, - q represents an integer at least equal to 1 and such that 5 ≤ (m+n+p)q ≤ 150, and preferentially such that 15 ≤ (m+n+p)q ≤ 120, - R 1 represents hydrogen or the methyl or ethyl radical, - R 2 represents hydrogen or the methyl or ethyl radical, - R represents a radical containing an unsaturated polymerizable function, belonging to the group of vinyls, - R' represents hydrogen or a hydrocarbon radical with 1 to 4 carbon atoms, R' being preferentially the methyl radical,
Conversion LED with a primary light source, which emits in the short-wave radiation range below 420 nm, and a luminophore of the BAM system placed in front of it as host lattice for at least partial conversion of the radiation of the light source into longer-wave radiation, characterized in that, directly on the surface of the light source, the BAM luminophore is applied as a thin layer with a layer thickness of at most 50 μm, wherein the BAM luminophore has the general stoichiometry (M 1-r Mg r)O*k(Al 2 O 3), with r = 0.4 to 0.6 and M = EA e Eu 1-e, with EA = Ba,Sr,Ca, wherein for k, k = 1.5 to 4.5 applies, characterized in that for e, e = 0.2 to 0.48 applies, in particular e = 0.35 to 0.45, and wherein in EA = Ba is used alone or is partially replaced through Sr and/or Ca according to the formula Ba z (Ca,Sr) 1-z, with z ≥ 0.7.
A pump apparatus configured to be used in an underwater trenching apparatus for operation in shallow water comprising a primary pump having a relatively low pressure fluid input and a relatively high pressure fluid output and means, associated with said primary pump fluid input, operable where the ambient pressure is insufficient substantially to prevent cavitation in the primary pump, to locally increase the pressure at said primary pump fluid input characterised in that the apparatus comprises one or more controllable flow restricting valves downstream of the high pressure fluid output, said valves having a flow restricting condition and a non-flow restricting condition, said flow restricting condition operatively reducing the input flow to the primary pump and increasing the exhaust pressure at the primary pump fluid output, as compared to the non-flow restricting condition, wherein said one or more controllable flow restricting valves are connected via a line to allow fluid communication with the primary fluid output.
An isocyanate-reactive composition comprising: at least one isocyanate-reactive compound; and at least one T-shaped siloxane material of the following structure: wherein, R 1 and R 2 are each independently a hydrogen or a C1-C4 alkyl group, p1 is an integer value of 1 - 6, p2 is an integer value of 1 - 12, p3 is an integer value of 0 - 12, the values of p1 and p2 combined being greater than or equal to 2; R 3 being a C1-C4 alkyl group, an acetyl, a propionyl, or butyrate; and R 4 being a C1-C4 alkyl, or trimethylsiloxy group. at least one isocyanate-reactive compound; and at least one T-shaped siloxane material of the following structure:
A flexible laminate for a flexible display, which has at least one unit of a laminated structure in which two hard layers closely adhere to each other with at least one intermediate layer therebetween, wherein when the flexible laminate is bent, neutral planes are formed inside each of the hard layers that closely adhere to each other with the intermediate layer therebetween, and the flexible laminate satisfies the following expression: a × ln tan δ × E T / 0.01 ≥ 100 wherein a is a physical property value inherent to the hard layer, tan δ represents a loss factor of a substance configuring the intermediate layer measured according to the description, and E T represents an elastic modulus (MPa) of the substance configuring the intermediate layer measured according to the description, and is defined by an apparent elastic modulus obtained by dividing a true stress by a true strain after a stress / strain curve is converted into a true stress / true strain curve when a tensile tester performs a tensile test under the condition that room temperature is 25°C and a strain rate is 0.0525 (1 / s); wherein the hard layer is a polyethylene terephthalate substrate, and a is 500, and wherein the intermediate layer is a cured product formed of a curable silicone composition that includes a linear or branched organopolysiloxane having at least one alkenyl group in a molecule on average, an organopolysiloxane resin, and an organohydrogenpolysiloxane having at least two Si-H bonds on a molecule, and a hydrosilylation reaction catalyst. wherein a is a physical property value inherent to the hard layer, tan δ represents a loss factor of a substance configuring the intermediate layer measured according to the description, and E T represents an elastic modulus (MPa) of the substance configuring the intermediate layer measured according to the description, and is defined by an apparent elastic modulus obtained by dividing a true stress by a true strain after a stress / strain curve is converted into a true stress / true strain curve when a tensile tester performs a tensile test under the condition that room temperature is 25°C and a strain rate is 0.0525 (1 / s); wherein the hard layer is a polyethylene terephthalate substrate, and a is 500, and wherein the intermediate layer is a cured product formed of a curable silicone composition that includes a linear or branched organopolysiloxane having at least one alkenyl group in a molecule on average, an organopolysiloxane resin, and an organohydrogenpolysiloxane having at least two Si-H bonds on a molecule, and a hydrosilylation reaction catalyst. a linear or branched organopolysiloxane having at least one alkenyl group in a molecule on average, an organopolysiloxane resin, and an organohydrogenpolysiloxane having at least two Si-H bonds on a molecule, and a hydrosilylation reaction catalyst.
An access device (200; 300) comprising: a proximal housing portion, an elongated body portion extending distally from the proximal housing portion and having a tubular wall defining a central lumen to accommodate the passage of surgical instruments to the surgical site; and means operatively associated with the proximal housing portion for delivering a pressurized flow of fluid, characterized in that the access device (200; 300) is adapted and configured to be inserted into a natural lumen of a patient's body through a natural orifice to gain access to a surgical site in a body cavity through a wall of the natural lumen, the elongated body portion being an elongated flexible body portion and configured and dimensioned for transluminal access to the surgical site, and the access device (200; 300) further comprises nozzle means formed within the tubular wall of the flexible body portion around the circumference of the central lumen for directing pressurized fluid into the central lumen of the flexible body portion to develop a pressure differential in an area within a region within the central lumen, the pressure differential forming a barrier to the egress of pressurized fluid from the surgical site through the central lumen of the flexible body portion, while forming a fluid seal around surgical instruments passing through the central lumen of the flexible body portion to the surgical site, and the means is operatively associated with the proximal housing portion for delivering a pressurized flow of fluid to the nozzle means. a proximal housing portion, an elongated body portion extending distally from the proximal housing portion and having a tubular wall defining a central lumen to accommodate the passage of surgical instruments to the surgical site; and means operatively associated with the proximal housing portion for delivering a pressurized flow of fluid, characterized in that the access device (200; 300) is adapted and configured to be inserted into a natural lumen of a patient's body through a natural orifice to gain access to a surgical site in a body cavity through a wall of the natural lumen, the elongated body portion being an elongated flexible body portion and configured and dimensioned for transluminal access to the surgical site, and the access device (200; 300) further comprises nozzle means formed within the tubular wall of the flexible body portion around the circumference of the central lumen for directing pressurized fluid into the central lumen of the flexible body portion to develop a pressure differential in an area within a region within the central lumen, the pressure differential forming a barrier to the egress of pressurized fluid from the surgical site through the central lumen of the flexible body portion, while forming a fluid seal around surgical instruments passing through the central lumen of the flexible body portion to the surgical site, and the means is operatively associated with the proximal housing portion for delivering a pressurized flow of fluid to the nozzle means.
Assembly having a first oil line (121, 123), a second oil line, a third oil line, and a cavity (103, 111); wherein the first oil line (121, 123), the second oil line, and the third oil line each have an opening into the cavity (103, 111); wherein a plate with a continuous first bore and a continuous second bore; wherein the plate is disposed in the cavity (103, 111) in such a way that said plate covers the openings of the second oil line and of the third oil line; wherein the first bore fluidically interconnects the second oil line and the cavity; and wherein the second bore fluidically interconnects the third oil line and the cavity (103, 111); characterized by a component and a cover; wherein the component has a depression; wherein the cover covers the depression; and wherein the openings of the second oil line and of the third oil line lie in the depression. the first oil line (121, 123), the second oil line, and the third oil line each have an opening into the cavity (103, 111); wherein a plate with a continuous first bore and a continuous second bore; wherein the plate is disposed in the cavity (103, 111) in such a way that said plate covers the openings of the second oil line and of the third oil line; wherein the first bore fluidically interconnects the second oil line and the cavity; and wherein the second bore fluidically interconnects the third oil line and the cavity (103, 111); characterized by a component and a cover; wherein the component has a depression; wherein the cover covers the depression; and wherein the openings of the second oil line and of the third oil line lie in the depression.
A camera module, comprising: an imaging lens assembly module; and an image sensor disposed on an image surface of the imaging lens assembly module, and the image sensor comprising: a photoelectric converting layer for converting a light signal of an imaging light to an electric signal; a micro lens arrays layer for converging an energy of the imaging light into the photoelectric converting layer; a light filtering layer disposed between the photoelectric converting layer and the micro lens arrays layer, and the light filtering layer for absorbing a light at a certain wavelength region of the imaging light; and an anti-reflecting layer disposed on a surface of at least one of the light filtering layer and the micro lens arrays layer, wherein the anti-reflecting layer comprises an irregular nano-crystallite structure layer and an optical connecting layer, and the optical connecting layer is connected to the irregular nano-crystallite structure layer; characterized in that: a top of the optical connecting layer partially contacts an air. an imaging lens assembly module; and an image sensor disposed on an image surface of the imaging lens assembly module, and the image sensor comprising: a photoelectric converting layer for converting a light signal of an imaging light to an electric signal; a micro lens arrays layer for converging an energy of the imaging light into the photoelectric converting layer; a light filtering layer disposed between the photoelectric converting layer and the micro lens arrays layer, and the light filtering layer for absorbing a light at a certain wavelength region of the imaging light; and an anti-reflecting layer disposed on a surface of at least one of the light filtering layer and the micro lens arrays layer, wherein the anti-reflecting layer comprises an irregular nano-crystallite structure layer and an optical connecting layer, and the optical connecting layer is connected to the irregular nano-crystallite structure layer; a photoelectric converting layer for converting a light signal of an imaging light to an electric signal; a micro lens arrays layer for converging an energy of the imaging light into the photoelectric converting layer; a light filtering layer disposed between the photoelectric converting layer and the micro lens arrays layer, and the light filtering layer for absorbing a light at a certain wavelength region of the imaging light; and an anti-reflecting layer disposed on a surface of at least one of the light filtering layer and the micro lens arrays layer, wherein the anti-reflecting layer comprises an irregular nano-crystallite structure layer and an optical connecting layer, and the optical connecting layer is connected to the irregular nano-crystallite structure layer; characterized in that: a top of the optical connecting layer partially contacts an air.
A method of cleaving a double-stranded nucleic acid target sequence, having a first strand and a second strand, in a host cell, comprising: contacting the double-stranded nucleic acid target sequence with a first complex comprising a first prokaryotic Argonaute protein and a first guide nucleic acid, wherein the first guide nucleic acid hybridizes with the first strand of the double-stranded nucleic acid target sequence in the host cell and the first complex cleaves the first strand of the double-stranded nucleic acid target sequence; and a second complex comprising a second prokaryotic Argonaute protein and a second guide nucleic acid, wherein the second guide nucleic acid hybridizes with the second strand of the double-stranded nucleic acid target sequence in the host cell and the second complex cleaves the second strand of the double-stranded nucleic acid target sequence; wherein the method is not a method of therapeutic treatment of a human or animal body, and wherein the first and second prokaryotic Argonaute protein are selected from the group consisting of a Thermus thermophilus Agonaute (TtAgo) protein or a Synechococcus elongatus Agonaute (SeAgo) protein. contacting the double-stranded nucleic acid target sequence with a first complex comprising a first prokaryotic Argonaute protein and a first guide nucleic acid, wherein the first guide nucleic acid hybridizes with the first strand of the double-stranded nucleic acid target sequence in the host cell and the first complex cleaves the first strand of the double-stranded nucleic acid target sequence; and a second complex comprising a second prokaryotic Argonaute protein and a second guide nucleic acid, wherein the second guide nucleic acid hybridizes with the second strand of the double-stranded nucleic acid target sequence in the host cell and the second complex cleaves the second strand of the double-stranded nucleic acid target sequence; a first complex comprising a first prokaryotic Argonaute protein and a first guide nucleic acid, wherein the first guide nucleic acid hybridizes with the first strand of the double-stranded nucleic acid target sequence in the host cell and the first complex cleaves the first strand of the double-stranded nucleic acid target sequence; and a second complex comprising a second prokaryotic Argonaute protein and a second guide nucleic acid, wherein the second guide nucleic acid hybridizes with the second strand of the double-stranded nucleic acid target sequence in the host cell and the second complex cleaves the second strand of the double-stranded nucleic acid target sequence; wherein the method is not a method of therapeutic treatment of a human or animal body, and wherein the first and second prokaryotic Argonaute protein are selected from the group consisting of a Thermus thermophilus Agonaute (TtAgo) protein or a Synechococcus elongatus Agonaute (SeAgo) protein.