mhurhangee/ep-ind-claims huggingface dataset:
A nasal formulation for the treatment of fungus-induced rhinosinusitis in a mammal, said formulation comprising an aqueous suspension comprising: (a) 1 to 700 mcg of a steroidal anti-inflammatory, wherein the steroidal anti-inflammatory is fluticasone or a pharmaceutically acceptable derivative thereof, said steroidal anti-inflammatory having the following particle size distribution profile: i. 10% of the steroidal anti-inflammatory particles have a particle size of less than 0.5 μM (microns); ii. 25% of the steroidal anti-inflammatory particles have a particle size of less than 0.9 μM (microns); iii. 50% of the steroidal anti-inflammatory particles have a particle size of less than 1.7 μM (microns); iv. 75% of the steroidal anti-inflammatory particles have a particle size of less than 3.5 μM (microns); and v. 90% of the steroidal anti-inflammatory particles have a particle size of less than 5.5 μM (microns); wherein said formulation is suitable for administration to the nasal-paranasal mucosa; and (b) an antifungal agent, wherein the amount of the antifungal agent is from 0.5 to 150 mg; wherein said formulation is suitable for administration to the nasal-paranasal mucosa. (a) 1 to 700 mcg of a steroidal anti-inflammatory, wherein the steroidal anti-inflammatory is fluticasone or a pharmaceutically acceptable derivative thereof, said steroidal anti-inflammatory having the following particle size distribution profile: i. 10% of the steroidal anti-inflammatory particles have a particle size of less than 0.5 μM (microns); ii. 25% of the steroidal anti-inflammatory particles have a particle size of less than 0.9 μM (microns); iii. 50% of the steroidal anti-inflammatory particles have a particle size of less than 1.7 μM (microns); iv. 75% of the steroidal anti-inflammatory particles have a particle size of less than 3.5 μM (microns); and v. 90% of the steroidal anti-inflammatory particles have a particle size of less than 5.5 μM (microns); wherein said formulation is suitable for administration to the nasal-paranasal mucosa; and i. 10% of the steroidal anti-inflammatory particles have a particle size of less than 0.5 μM (microns); ii. 25% of the steroidal anti-inflammatory particles have a particle size of less than 0.9 μM (microns); iii. 50% of the steroidal anti-inflammatory particles have a particle size of less than 1.7 μM (microns); iv. 75% of the steroidal anti-inflammatory particles have a particle size of less than 3.5 μM (microns); and v. 90% of the steroidal anti-inflammatory particles have a particle size of less than 5.5 μM (microns); wherein said formulation is suitable for administration to the nasal-paranasal mucosa; and (b) an antifungal agent, wherein the amount of the antifungal agent is from 0.5 to 150 mg; wherein said formulation is suitable for administration to the nasal-paranasal mucosa.
A method of assembling a particle damped gas turbine engine component, comprising: holding damping media within a cavity of a gas turbine engine component using magnetic force; characterised in that: the method includes holding the damping media within the cavity of a structural guide vane. holding damping media within a cavity of a gas turbine engine component using magnetic force; characterised in that: the method includes holding the damping media within the cavity of a structural guide vane. the method includes holding the damping media within the cavity of a structural guide vane.
A method for producing a polythiol compound having a total nitrogen content of 50 to 600 ppm, said method comprising: reacting a polyalcohol with thiourea to prepare a thiuronium salt; and adding (i) at least one amine-based base selected from the group consisting of hydrazine, hydrazine hydrate, ammonia and an amine, and (ii) an inorganic base to the thiuronium salt in the presence of an organic solvent to hydrolyze the thiuronium salt, wherein the organic solvent is at least one selected from the group consisting of diethyl ether, benzene, toluene, xylene, dichloroethane, chloroform and chlorobenzene, and wherein the inorganic base is at least one selected from the group consisting of sodium carbonate, potassium carbonate, magnesium carbonate, calcium carbonate, sodium hydrogen carbonate, potassium hydrogen carbonate, sodium hydroxide, potassium hydroxide, magnesium hydroxide and calcium hydroxide. reacting a polyalcohol with thiourea to prepare a thiuronium salt; and adding (i) at least one amine-based base selected from the group consisting of hydrazine, hydrazine hydrate, ammonia and an amine, and (ii) an inorganic base to the thiuronium salt in the presence of an organic solvent to hydrolyze the thiuronium salt, wherein the organic solvent is at least one selected from the group consisting of diethyl ether, benzene, toluene, xylene, dichloroethane, chloroform and chlorobenzene, and wherein the inorganic base is at least one selected from the group consisting of sodium carbonate, potassium carbonate, magnesium carbonate, calcium carbonate, sodium hydrogen carbonate, potassium hydrogen carbonate, sodium hydroxide, potassium hydroxide, magnesium hydroxide and calcium hydroxide.
A fuel cell assembly comprising: an enclosure for mounting a fuel cell stack therein, the enclosure comprising an air flow path extending between an air inlet and an air outlet; a fuel cell stack having a plurality of cathode air coolant paths extending between a first face and an opposing second face of the stack, wherein the fuel cell stack is mounted within the enclosure to provide a first tapering air volume between the first face of the stack and a first side wall of the enclosure and a second tapering air volume between the second face of the stack and a second opposing side wall of the enclosure, and an air deflector assembly (1510a, 1510b) provided between the air inlet and first face of the fuel cell stack; wherein the air deflector assembly comprises a plurality of vanes arranged to direct air towards one or more portions of the inlet face of the fuel cell stack; and wherein the plurality of vanes are arranged as one or more rotatable air deflector assemblies (1510a, b) configured to rotate in response to air flowing through the air inlet to increase turbulence in the tapered air inlet volume. an enclosure for mounting a fuel cell stack therein, the enclosure comprising an air flow path extending between an air inlet and an air outlet; a fuel cell stack having a plurality of cathode air coolant paths extending between a first face and an opposing second face of the stack, wherein the fuel cell stack is mounted within the enclosure to provide a first tapering air volume between the first face of the stack and a first side wall of the enclosure and a second tapering air volume between the second face of the stack and a second opposing side wall of the enclosure, and an air deflector assembly (1510a, 1510b) provided between the air inlet and first face of the fuel cell stack; wherein the air deflector assembly comprises a plurality of vanes arranged to direct air towards one or more portions of the inlet face of the fuel cell stack; and wherein the plurality of vanes are arranged as one or more rotatable air deflector assemblies (1510a, b) configured to rotate in response to air flowing through the air inlet to increase turbulence in the tapered air inlet volume.
Component of a tank system for storing gaseous or liquid media such as hydrogen, the component being a pressure vessel, the pressure vessel having a liner on the inner side of a load-bearing vessel wall, characterized in that the component has as a permeation barrier layer a coating comprising graphene or a graphene compound, the permeation barrier layer having been applied to the inner side of the liner.
A method of wireless communication, comprising: transferring data at a network controller for a user equipment via a first user plane connection in a first radio access network; if the data transferred via the first user plane connection satisfies a trigger condition, initiating a handover procedure of transferring the user equipment to a second user plane connection in a second radio access network, and characterized in that the trigger condition is satisfied if an amount of data transferred via the first user plane connection exceeds a first threshold value during a period of time. transferring data at a network controller for a user equipment via a first user plane connection in a first radio access network; if the data transferred via the first user plane connection satisfies a trigger condition, initiating a handover procedure of transferring the user equipment to a second user plane connection in a second radio access network, and characterized in that the trigger condition is satisfied if an amount of data transferred via the first user plane connection exceeds a first threshold value during a period of time.
A flexible sensor film comprising: - a substrate core having a first surface and a second surface; - at least one sensing element (24, 54, 62a, 62b, 62c, 63a, 63b, 64a, 64b, 64c, 70, 74) for sensing at least one property; - a first conductive layer residing on said first surface, said first conductive layer having first solder mask coated thereon, and wherein said first conductive layer is grounded; and - a second conductive layer residing on said second surface, second conductive layer having a second solder mask coated thereon, and coupled to said at least one sensing element (24, 54, 62a, 62b, 62c, 63a, 63b, 64a, 64b, 64c, 70, 74). - a substrate core having a first surface and a second surface; - at least one sensing element (24, 54, 62a, 62b, 62c, 63a, 63b, 64a, 64b, 64c, 70, 74) for sensing at least one property; - a first conductive layer residing on said first surface, said first conductive layer having first solder mask coated thereon, and wherein said first conductive layer is grounded; and - a second conductive layer residing on said second surface, second conductive layer having a second solder mask coated thereon, and coupled to said at least one sensing element (24, 54, 62a, 62b, 62c, 63a, 63b, 64a, 64b, 64c, 70, 74).
A semiconductor wafer comprising the following layers in the given order: - a monocrystalline substrate wafer consisting essentially of silicon and having a surface orientation, - a monocrystalline layer of Sc 2 O 3 having a surface orientation, - a monocrystalline layer of ScN having a surface orientation, and - a monocrystalline layer of Al z Ga 1-z N with 0 ≤ z ≤ 1 having a surface orientation. characterised in that the layer of ScN has a thickness of 2 to 500 nm - a monocrystalline substrate wafer consisting essentially of silicon and having a surface orientation, - a monocrystalline layer of Sc 2 O 3 having a surface orientation, - a monocrystalline layer of ScN having a surface orientation, and - a monocrystalline layer of Al z Ga 1-z N with 0 ≤ z ≤ 1 having a surface orientation. characterised in that the layer of ScN has a thickness of 2 to 500 nm
A method of fixing a second lens (100, 130) to a first lens (102, 132), the method characterized by comprising the steps of: providing an intermediate member (101, 131)on the first lens, the intermediate member being made of a sheet material having a ring shape and being adapted to be heated by absorption of near-infrared light and to have increased adhesive strength upon application of heat; a first heating step of heating the intermediate member by irradiating near-infrared light onto the intermediate member to fix the intermediate member to the first lens; aligning the second lens relative to the first lens such that the intermediate member is disposed between the first lens and the second lens; bringing the first lens, intermediate member and second lens into close contact with each other by a pressurizing device; and a second heating step of heating the intermediate member by irradiating near-infrared light onto the intermediate member, wherein the intermediate member is irradiated at first positions during the first heating step and at second positions, different to the first positions, during the second heating step to fix the first lens, intermediate member and second lens together. providing an intermediate member (101, 131)on the first lens, the intermediate member being made of a sheet material having a ring shape and being adapted to be heated by absorption of near-infrared light and to have increased adhesive strength upon application of heat; a first heating step of heating the intermediate member by irradiating near-infrared light onto the intermediate member to fix the intermediate member to the first lens; aligning the second lens relative to the first lens such that the intermediate member is disposed between the first lens and the second lens; bringing the first lens, intermediate member and second lens into close contact with each other by a pressurizing device; and a second heating step of heating the intermediate member by irradiating near-infrared light onto the intermediate member, wherein the intermediate member is irradiated at first positions during the first heating step and at second positions, different to the first positions, during the second heating step to fix the first lens, intermediate member and second lens together.
Laundry drier having a drying panel, which has at least two elongate retaining elements on which to hang items of laundry which are to be dried and which is retained via a supporting framework, and having at least one fan, which is driven by an electric motor and via which it is possible to generate, in the region of the drying panel, an air flow which is directed in at least one flow direction between the retaining elements and/or the items of laundry hanging thereon, wherein at least one air-distributing chamber is provided, the fan feeding air into said chamber, and the drying panel has a frame formed by a front frame part, a rear frame part and at least one side part arranged on one of the sides of the drying panel, and also has at least one air guide, which is flow-connected to the air-distributing chamber and has air-flow openings, via which the air exits in the flow direction, and wherein, for the purpose of forming the air-distributing chamber, at least the front frame part is designed in the form of a hollow chamber, and the retaining elements run from a front fastening line, which is arranged on the front frame part, to a rear fastening line, which is arranged on the rear frame part, characterized in that the air-flow openings, via which air is blown between the items of laundry, are arranged directly on the air-distributing chamber and along the front fastening line, or parallel to the front fastening line.
A method performed by a first computing device, comprising: for each of a plurality of second computing devices (104 A-C) communicatively coupled to the first computing device, receiving,, from the second computing device: a first characteristic descriptor indicating a length of time that an instance of a software application executed on the computing device; and a second characteristic descriptor of the instance of the software application; determining,, based on a respective first characteristic descriptor received from each of the plurality of second computing devices, a cumulative length of time that the instances of the software application executed on the plurality of second computing devices in a predetermined time frame; determining that a vulnerability exists with respect to the instances of the software application executing on the plurality of second computing devices based on the second characteristic descriptor, comprising: obtaining, based on the second characteristic descriptor, a vulnerability score for the instance of the software application, wherein the vulnerability score indicates that a vulnerability exists for the instance of the software application; assigning a security risk level to the instances of the software application based at least on the determined vulnerability and the cumulative length of time; and performing an action to mitigate the determined vulnerability in accordance with the security risk level. for each of a plurality of second computing devices (104 A-C) communicatively coupled to the first computing device, receiving,, from the second computing device: a first characteristic descriptor indicating a length of time that an instance of a software application executed on the computing device; and a second characteristic descriptor of the instance of the software application; a first characteristic descriptor indicating a length of time that an instance of a software application executed on the computing device; and a second characteristic descriptor of the instance of the software application; determining,, based on a respective first characteristic descriptor received from each of the plurality of second computing devices, a cumulative length of time that the instances of the software application executed on the plurality of second computing devices in a predetermined time frame; determining that a vulnerability exists with respect to the instances of the software application executing on the plurality of second computing devices based on the second characteristic descriptor, comprising: obtaining, based on the second characteristic descriptor, a vulnerability score for the instance of the software application, wherein the vulnerability score indicates that a vulnerability exists for the instance of the software application; assigning a security risk level to the instances of the software application based at least on the determined vulnerability and the cumulative length of time; and performing an action to mitigate the determined vulnerability in accordance with the security risk level.
Method for monitoring a conveyance of fluid in a device for extracorporeal blood treatment, whereby fluid is conveyed by means of a peristaltic pump in a fluid system from a low-pressure side to a high-pressure side in that an elastically deformable fluid line positioned between the low-pressure side and the high-pressure side is deformed between a support surface and at least two squeeze elements (16, 17) of a rotor rotating opposite the support surface in such a way that a conveyance volume section (22, 23) is formed between the squeeze elements (16, 17), whereby a fluid pressure value in the fluid system is detected for the conveyance volume section (22, 23) which is specific to the conveyance volume section, and whereby a conveyance cycle comprises a respective full rotation of the rotor, characterized in that the detected conveyance-volume-specific fluid pressure value of a conveyance cycle n is compared with the detected conveyance-volume-specific fluid pressure value of a preceding conveyance cycle n-x. whereby fluid is conveyed by means of a peristaltic pump in a fluid system from a low-pressure side to a high-pressure side in that an elastically deformable fluid line positioned between the low-pressure side and the high-pressure side is deformed between a support surface and at least two squeeze elements (16, 17) of a rotor rotating opposite the support surface in such a way that a conveyance volume section (22, 23) is formed between the squeeze elements (16, 17), whereby a fluid pressure value in the fluid system is detected for the conveyance volume section (22, 23) which is specific to the conveyance volume section, and whereby a conveyance cycle comprises a respective full rotation of the rotor, characterized in that the detected conveyance-volume-specific fluid pressure value of a conveyance cycle n is compared with the detected conveyance-volume-specific fluid pressure value of a preceding conveyance cycle n-x.
Metal tank for storing fluid under high pressure, comprising, along its axis, a plurality of adjacent compartments (10, 71, 91) separated by partitions, each compartment having a cylindrical wall, a transition zone connecting each partition to the cylindrical wall, the compartments communicating with one another via at least one orifice made in each partition, in which, for a given compartment, the cylindrical wall is connected via an annular weld to the transition zone of the adjacent compartment.
A method for implementation in user equipment that is configured to communicate with a wireless communication system that comprises at least one macro-cell and a plurality of femtocells that are grouped in a femtocell cluster, the method comprising: providing a call connection request from said user equipment to one of the plurality of femtocells in the femtocell cluster; receiving, at said user equipment from said one of the plurality of femtocells in response to providing the call connection request, information identifying the femtocell cluster as a femtocell cluster associated with said user equipment and information indicating locations of each of the femtocells in the femtocell cluster, whereby a RRC connection setup message received at said user equipment from said one of the plurality of femtocells comprising said information indicating locations of each of the femtocells in the femtocell cluster and further comprising a Boolean variable; and, when the Boolean variable is set to TRUE, storing the information identifying the femtocells in the femtocell cluster and the information indicating the locations of the femtocells in the femtocell cluster in said user equipment. providing a call connection request from said user equipment to one of the plurality of femtocells in the femtocell cluster; receiving, at said user equipment from said one of the plurality of femtocells in response to providing the call connection request, information identifying the femtocell cluster as a femtocell cluster associated with said user equipment and information indicating locations of each of the femtocells in the femtocell cluster, whereby a RRC connection setup message received at said user equipment from said one of the plurality of femtocells comprising said information indicating locations of each of the femtocells in the femtocell cluster and further comprising a Boolean variable; and, when the Boolean variable is set to TRUE, storing the information identifying the femtocells in the femtocell cluster and the information indicating the locations of the femtocells in the femtocell cluster in said user equipment.