mhurhangee/patent-ind-claim-en huggingface dataset:
An annular component of supporting at least one bearing , for a turbine engine , in particular for an aircraft, comprising: - two coaxial annular walls, internal and external respectively, these walls delimiting between them an annular gas flow vein and being connected together by an annular row of arms ; - an external annular shell extending around the external annular wall , this shell comprising an internal peripheral edge connected to the external annular wall and an external peripheral edge connected to an annular fixing flange, referred to as "external flange" ; - an internal annular shell extending inside the internal annular wall , this shell comprising an external peripheral edge connected to the internal annular wall and an internal peripheral edge comprising an annular fixing flange, referred to as the "internal flange" ; the annular component being characterised in that at least one of the shells has its external or internal peripheral edge which is connected to the corresponding annular wall and which has a generally corrugated shape around an axis (X-X) of the annular component . - two coaxial annular walls, internal and external respectively, these walls delimiting between them an annular gas flow vein and being connected together by an annular row of arms ; - an external annular shell extending around the external annular wall , this shell comprising an internal peripheral edge connected to the external annular wall and an external peripheral edge connected to an annular fixing flange, referred to as "external flange" ; - an internal annular shell extending inside the internal annular wall , this shell comprising an external peripheral edge connected to the internal annular wall and an internal peripheral edge comprising an annular fixing flange, referred to as the "internal flange" ;
A method for controlling a power generation and delivery system while increasing a power output of the power generation and delivery system , the power generation and delivery system comprising an electrical generator , a power converter , and a controller , said method comprising: monitoring an output parameter of the power generation and delivery system ; characterized by determining a rate of change of the output parameter as a function of time; generating a reactive current command signal as a function of the determined rate of change of the output parameter; and controlling operation of the power converter based at least partially on the reactive current command signal to facilitate maintaining a substantially constant terminal voltage as the power output of the power generation and delivery system is increased; wherein monitoring an output parameter of the power generation and delivery system comprises monitoring a signal indicative of the power output of the power generation and delivery system ; and wherein controlling operation of the power converter based at least partially on the reactive current command signal comprises increasing reactive current output by the power converter proportional to the determined rate of change of the signal indicative of the power output of the power generation and delivery system . monitoring an output parameter of the power generation and delivery system ; characterized by determining a rate of change of the output parameter as a function of time; generating a reactive current command signal as a function of the determined rate of change of the output parameter; and controlling operation of the power converter based at least partially on the reactive current command signal to facilitate maintaining a substantially constant terminal voltage as the power output of the power generation and delivery system is increased; wherein monitoring an output parameter of the power generation and delivery system comprises monitoring a signal indicative of the power output of the power generation and delivery system ; and wherein controlling operation of the power converter based at least partially on the reactive current command signal comprises increasing reactive current output by the power converter proportional to the determined rate of change of the signal indicative of the power output of the power generation and delivery system .
Fluid channel system for examining cells, comprising a chamber which is filled with at least one photopolymerized hydrogel and/or one polymerized photodepolymerizable hydrogel to at least 90 % of capacity, in particular completely, wherein the chamber (106; 206) is open via at least two openings (107, 108; 207, 208) exclusively towards at least one fluid channel (104, 105; 204), wherein the at least one fluid channel (104, 105; 204) and the chamber (106; 206) are each embodied in the form of a hollow space in a substrate (101; 201), and wherein each fluid channel (104, 105; 204) has two openings to the outside, wherein "outside" refers to a region outside the substrate, and wherein the chamber (106; 206) does not have a direct connection to the outside.
An egg for the confectionery industry, characterized in that it comprises two half-parts , each one comprising an internal chocolate and/or pastry cream half-shell externally covered by an external wafer biscuit half-shell , there being comprised a uniform increase in the thickness of the chocolate and/or pastry cream along a perimeter edge of the internal chocolate and/or pastry cream half-shell and a uniform decrease in the thickness of the wafer biscuit along a perimeter edge of the external wafer biscuit half-shell .
A light emitting device array comprising: a light emitting stack having a light emitting surface and a contact surface , the light emitting surface and the contact surface defining opposing sides of the light emitting stack , the light emitting stack comprising a plurality of Group III-nitride layers including a first semiconducting layer provided towards the light emitting surface of the light emitting stack , a second semiconducting layer provided towards the contact surface , and an active layer arranged between the first semiconducting layer and the second semiconducting layer , the active layer configured to generate light having a first wavelength, wherein the light emitting surface and the contact surface are parallel to each other and aligned with the plurality of Group III-nitride layers; a first electrical contact layer provided on the light emitting stack and configured to be in electrical contact with the first semiconducting layer ; an array of second electrical contacts provided on the contact surface of the light emitting stack , each second electrical contact defining a light emitting device between the first semiconducting layer and the second electrical contact , wherein each of the second electrical contacts is spaced apart from the other second electrical contacts to form a two-dimensional array of the light emitting devices; characterised in further comprising: an anti-reflection layer provided on the light emitting surface , the anti-reflection layer configured to increase a light extraction efficiency of light generated by the light emitting stack . a light emitting stack having a light emitting surface and a contact surface , the light emitting surface and the contact surface defining opposing sides of the light emitting stack , the light emitting stack comprising a plurality of Group III-nitride layers including a first semiconducting layer provided towards the light emitting surface of the light emitting stack , a second semiconducting layer provided towards the contact surface , and an active layer arranged between the first semiconducting layer and the second semiconducting layer , the active layer configured to generate light having a first wavelength, wherein the light emitting surface and the contact surface are parallel to each other and aligned with the plurality of Group III-nitride layers; a first electrical contact layer provided on the light emitting stack and configured to be in electrical contact with the first semiconducting layer ; an array of second electrical contacts provided on the contact surface of the light emitting stack , each second electrical contact defining a light emitting device between the first semiconducting layer and the second electrical contact , wherein each of the second electrical contacts is spaced apart from the other second electrical contacts to form a two-dimensional array of the light emitting devices; characterised in further comprising: an anti-reflection layer provided on the light emitting surface , the anti-reflection layer configured to increase a light extraction efficiency of light generated by the light emitting stack .
A sealant formulation comprising: (i) a polysulfide; (ii) an acid component selected from an acid salt, sodium aluminum sulfate, delta-gluconolactone, sodium aluminum pyrophosphate or aluminum sulfate; and (iii) a bicarbonate. (i) a polysulfide; (ii) an acid component selected from an acid salt, sodium aluminum sulfate, delta-gluconolactone, sodium aluminum pyrophosphate or aluminum sulfate; and (iii) a bicarbonate.
A printer comprising an opening through which one or more sheets to be treated could be introduced therein and further comprising a paper board for supporting said one or more sheets to be treated, wherein said paper board comprises two half paper boards , wherein each half paper board comprises a root and a free end , wherein each free end is rotatable about a respective horizontal axis (YA, YB) with respect to said root when it is subject to a vertical load, wherein said root and said free end are connected through a resilient means maintaining a top surface of the free end substantially at the same level of a top surface of the root when loaded with a load corresponding to a predetermined number of sheets, and wherein each half paper board is rotatable about a respective vertical axis (XA, XB) from a fully retracted configuration to a fully extended configuration. wherein said paper board comprises two half paper boards , wherein each half paper board comprises a root and a free end , wherein each free end is rotatable about a respective horizontal axis (YA, YB) with respect to said root when it is subject to a vertical load, wherein said root and said free end are connected through a resilient means maintaining a top surface of the free end substantially at the same level of a top surface of the root when loaded with a load corresponding to a predetermined number of sheets, and wherein each half paper board is rotatable about a respective vertical axis (XA, XB) from a fully retracted configuration to a fully extended configuration.
A parameter configuration method, comprising: sending (S201), by a second terminal device, a first parameter combination to a first terminal device, wherein the first parameter combination is used for indicating sidelink data transmitting parameters of the second terminal device and/or sidelink data receiving parameters of the second terminal device, characterized in that sending (S201), by the second terminal device, the first parameter combination to the first terminal device is triggered by a first message received from the first terminal device, wherein the first message is a security parameter configuration message, wherein the first parameter combination at least comprises: quality of service, QoS, attribute information, a provider service identifier, PSID, or an intelligent transportation system-application identification, ITS-AID, wherein when the first parameter combination comprises the QoS attribute information, the first parameter combination is used for indicating that the second terminal device requires initiating a service with the QoS attribute, wherein the first parameter combination is used for different first parameter configuration for different situations, and wherein the situations include at least one of following: usage of the PSID, or the ITS-AID. sending (S201), by a second terminal device, a first parameter combination to a first terminal device, wherein the first parameter combination is used for indicating sidelink data transmitting parameters of the second terminal device and/or sidelink data receiving parameters of the second terminal device, characterized in that sending (S201), by the second terminal device, the first parameter combination to the first terminal device is triggered by a first message received from the first terminal device, wherein the first message is a security parameter configuration message, wherein the first parameter combination at least comprises: quality of service, QoS, attribute information, a provider service identifier, PSID, or an intelligent transportation system-application identification, ITS-AID, wherein when the first parameter combination comprises the QoS attribute information, the first parameter combination is used for indicating that the second terminal device requires initiating a service with the QoS attribute, wherein the first parameter combination is used for different first parameter configuration for different situations, and wherein the situations include at least one of following: usage of the PSID, or the ITS-AID.
A honeycomb for use in making aircraft panels wherein said honeycomb has walls comprising an alternate resin-coated paper material that has a self-extinguishing time of less than 10 seconds and a self-extinguishing burn length of less than 30 cm(12 inches) when exposed to a 12 second vertical flame in accordance with the vertical burn test requirements set forth in 14 C.F.R. Part 25.583, said alternate resin-coated paper material comprising: a layer of paper comprising from 30 to 50 weight percent aramid fibers and from 50 to 70 weight percent of non-aramid fibers, based on the total weight of said paper, said layer of paper not having a self-extinguishing burn length of at least 30 cm(12 inches) when exposed to a 12-second vertical flame in accordance with the vertical burn test requirements set forth in 14 C.F.R. Part 25.583; and a fire retarded phenolic resin comprising a phenol formaldehyde resin and a sufficient amount of a phosphorous-containing fire retardant so that said fire retarded phenolic resin contains from 2 to 6 weight percent phosphorous, wherein the amount of said fire retarded phenolic resin in said alternate resin-coated paper material is sufficient to so that said alternate resin-coated paper material has a self-extinguishing time of less than 10 seconds and a self- extinguishing burn length of less than 30 cm(12 inches) when exposed to a 12-second vertical flame in accordance with the vertical bum test requirements set forth in 14 C.F.R. Part 25.583.
A method of preparing an encapsulated phospholipid oil-in-water emulsion comprising: preparing an oil-in-water pre-emulsion consisting essentially of a phospholipid-containing oil and water, and mixing the oil-in-water pre-emulsion with an encapsulant material; wherein the phospholipid-containing oil comprises omega-3 fatty acids; and wherein the amount of phospholipid-containing oil present in the encapsulated phospholipid oil-in-water emulsion is at least 10% by weight. wherein the phospholipid-containing oil comprises omega-3 fatty acids; and wherein the amount of phospholipid-containing oil present in the encapsulated phospholipid oil-in-water emulsion is at least 10% by weight.
An inverter apparatus that variably controls an operation frequency of an electric motor (M) provided in a refrigerating device , comprising: a printed wiring board ; a power device attached to one surface of the printed wiring board , the power device including a converter circuit and an inverter circuit ; a reactor arranged on a side of the one surface of the printed wiring board , at least a part of the reactor being arranged within a plane projection area of the printed wiring board ; and a cooler for cooling the power device and the reactor , the cooler being arranged such that the power device and the reactor are interposed between the cooler and the printed wiring board ; wherein the reactor is a harmonic suppression reactor provided between the converter circuit and the inverter circuit in an electric circuit, the printed wiring board includes a first connection portion (C to H) to which the power device is connected, a second connection portion (I, J) to which the reactor is connected, a third connection portion (A) to which a power supply wire is connected, and a fourth connection portion (B) to which an output wire to the electric motor (M) is connected, and the first connection portion (C to H) is arranged between the second connection portion (I, J), and the third connection portion (A) and the fourth connection portion (B). a printed wiring board ; a power device attached to one surface of the printed wiring board , the power device including a converter circuit and an inverter circuit ; a reactor arranged on a side of the one surface of the printed wiring board , at least a part of the reactor being arranged within a plane projection area of the printed wiring board ; and a cooler for cooling the power device and the reactor , the cooler being arranged such that the power device and the reactor are interposed between the cooler and the printed wiring board ; the reactor is a harmonic suppression reactor provided between the converter circuit and the inverter circuit in an electric circuit, the printed wiring board includes a first connection portion (C to H) to which the power device is connected, a second connection portion (I, J) to which the reactor is connected, a third connection portion (A) to which a power supply wire is connected, and a fourth connection portion (B) to which an output wire to the electric motor (M) is connected, and the first connection portion (C to H) is arranged between the second connection portion (I, J), and the third connection portion (A) and the fourth connection portion (B).
A method of controlling access of a smart device to a router via a server, the smart device being provided with Wi-Fi function; wherein the method comprises: receiving (S200), at the server, from the smart device, (i) a collection comprising SSIDs of access-barred routers corresponding to an identifier of the smart device, and (ii) the identifier of the smart device for a mapping storage; receiving (S201) at the server the identifier of the smart device and an SSID of a router currently accessed by the smart device; acquiring (S202), from the mapping storage, at the server the collection comprising SSIDs of access-barred routers corresponding to the identifier of the smart device; judging (S203) at the server whether the router currently accessed by the smart device is an access-barred router, according to the SSID of the router currently accessed and the collection comprising SSIDs of access-barred routers, to obtain a judgment result; and transmitting (S204) from the server a corresponding instruction to the smart device according to the judgment result. receiving (S200), at the server, from the smart device, (i) a collection comprising SSIDs of access-barred routers corresponding to an identifier of the smart device, and (ii) the identifier of the smart device for a mapping storage; receiving (S201) at the server the identifier of the smart device and an SSID of a router currently accessed by the smart device; acquiring (S202), from the mapping storage, at the server the collection comprising SSIDs of access-barred routers corresponding to the identifier of the smart device; judging (S203) at the server whether the router currently accessed by the smart device is an access-barred router, according to the SSID of the router currently accessed and the collection comprising SSIDs of access-barred routers, to obtain a judgment result; and transmitting (S204) from the server a corresponding instruction to the smart device according to the judgment result.
A golf ball comprising a core with a diameter being equal to or greater than 36.0 mm and equal to or less than 41.0 mm, an inner cover positioned outside the core , a mid cover positioned outside the inner cover , and an outer cover positioned outside the mid cover , wherein when distances from the central point of the core to nine points and JIS-C hardnesses at the nine points, which nine points are obtained by dividing the region from the central point of the core to the surface of the core at intervals of 12.5% of the radius of the core, are plotted in a graph, R 2 of the linear approximation curve obtained by the least-square method is equal to or greater than 0.95, the JIS-C hardness Hi of the inner cover is greater than the JIS-C hardness Hs at the surface of the core , and the JIS-C hardness Ho of the outer cover is greater than the JIS-C hardness Hi, and the difference Hs-H between the JIS-C hardness Hs at the surface of the core and the JIS-C hardness H at the central point of the core is equal to or greater than 15.
A switch device structure comprising an assembly of a main body and an operation body , wherein an electrical connection module and an elastic unit being mounted on the main body , the electrical connection module having a contact arm with variable mounting position, the contact arm including a fixed contact arm with a fixed contact and a movable contact arm with a movable contact , the elastic unit including a fixed section , a free section and a bent section connected between the fixed section and the free section , which together define a geometrical configuration, in accordance with the position of the operation body , the elastic unit being able to provide an elastic push force to push the movable contact of the movable contact arm of the electrical connection module into contact with the fixed contact of the fixed contact arm to form a circuit closed state or make the elastic unit separate from the movable contact arm to form a circuit open state, the fixed section of the elastic unit is fixed on the operation body , characterized by the elastic unit including a base section windingly extending from the fixed section , a bent section connected with the base section and a bow section connected with the bent section , a tail end of the bow section being formed with a subsidiary bent section and a free section connected with the subsidiary bent section , the free section extending in a direction to the fixed section to together define a geometrical configuration, whereby when the elastic unit moves in response to the operation body , the elastic unit is displaced and moved.