mhurhangee/ep-ind-claims huggingface dataset:
A system for the deployment of seismic nodes on or near the seabed, comprising: a subsea station (520; 960) coupled to a first surface vessel; a plurality of autonomous underwater vehicles, AUVs, (501b; 501), wherein each AUV comprises one or more seismic sensors, a propulsion system, and a guidance system; wherein the subsea station (520; 960) is configured to carry a set of AUVs among the plurality of the AUVs, and to be lowered with said set of AUVs from the first surface vessel to a subsea position; and characterized in that said system further comprises a remotely operated vehicle, ROV, (550; 950) coupled to a surface vessel, wherein the ROV comprises a propulsion system (308; 952) to move the ROV to different subsea positions and a guidance system (552, 954) configured to communicate with each of the AUVs of the set to guide each of the AUVs of the set from a first subsea position to a second subsea position; and in that said subsea station (520; 960) is configured to be raised to surface by the first surface vessel to obtain a new set of AUVs and re-lowered for a new deployment of said new set of AUVs and guidance of each of the AUVs of the new set of AUVs is provided by the guidance system (552; 954) of said ROV. a subsea station (520; 960) coupled to a first surface vessel; a plurality of autonomous underwater vehicles, AUVs, (501b; 501), wherein each AUV comprises one or more seismic sensors, a propulsion system, and a guidance system; wherein the subsea station (520; 960) is configured to carry a set of AUVs among the plurality of the AUVs, and to be lowered with said set of AUVs from the first surface vessel to a subsea position; and characterized in that said system further comprises a remotely operated vehicle, ROV, (550; 950) coupled to a surface vessel, wherein the ROV comprises a propulsion system (308; 952) to move the ROV to different subsea positions and a guidance system (552, 954) configured to communicate with each of the AUVs of the set to guide each of the AUVs of the set from a first subsea position to a second subsea position; and in that said subsea station (520; 960) is configured to be raised to surface by the first surface vessel to obtain a new set of AUVs and re-lowered for a new deployment of said new set of AUVs and guidance of each of the AUVs of the new set of AUVs is provided by the guidance system (552; 954) of said ROV.
A lubricating oil composition comprising lubricating oil base oil and a primary amine which has a C 8 to C 20 tertiary alkyl group which can be represented by general formula below wherein x is an integer of value from 1 to 17, y is an integer of value from 1 to 17, z is an integer of value from 1 to 17, and x + y + z is an integer of value from 7 to 19; wherein the base oil is narrow cut base oil or mixtures of narrow cut base oils, wherein the composition of the narrow-cut base oils is such that with the method of measurement laid down in ASTM D 3238, the aromatic content (%CA) is not more than 0.1 wt% and the paraffin content (%Cp) is at least 85 wt%, the iso-paraffin content is at least 80 wt%, the elemental sulphur content is not more than 50 ppm, the elemental nitrogen content is not more than 5 ppm, the total polar material is not more than 1% and the properties are: refractive index at least 1.45, aniline point at least 120°C and they are colourless and transparent, being classified as L0.5 using the colour test method laid down in ASTM D 1500; wherein said composition has a kinematic viscosity at 40°C of from 18 to 60 mm 2 /s, a viscosity index of from 130 to 150 and a density at 15°C of from 0.80 to 0.84 g.cm -3; wherein the composition has a flash point of at least 250°C as measured by JIS K2265; and wherein from 0.001 to 5.0 parts by weight of the primary amine represented by general formula is compounded per 100 parts by weight of the lubricating oil composition.
Eating aid with a contact area for placing on a food item, a finger mount facing away from the contact area for attachment to a finger (F, D), which forms a fingertip rest against which the outer phalanx of a finger (F, D) comes to rest when placed on a finger (F, D), and at least one spike for piercing the food item, wherein the contact area is formed by a flat element which is curved and forms a concave area for the placement of a finger, which element delimits the finger mount, and wherein the spike is kept within a portion of the flat element, at the level of which, when in use, the finger mount extends over an underside of the outer phalanx, characterized in that the spike is provided for piercing the food item in the form of a hamburger and for this purpose protrudes with a length of at least 2 cm from the contact area. a finger mount facing away from the contact area for attachment to a finger (F, D), which forms a fingertip rest against which the outer phalanx of a finger (F, D) comes to rest when placed on a finger (F, D), and at least one spike for piercing the food item, wherein the contact area is formed by a flat element which is curved and forms a concave area for the placement of a finger, which element delimits the finger mount, and wherein the spike is kept within a portion of the flat element, at the level of which, when in use, the finger mount extends over an underside of the outer phalanx, characterized in that the spike is provided for piercing the food item in the form of a hamburger and for this purpose protrudes with a length of at least 2 cm from the contact area.
A gas turbine engine for an aircraft, comprising a cabin blower and rotor bow mitigation system, the system comprising: a cabin blower compressor mechanically coupled to one or more spools (26, 27) of the gas turbine engine; an electric machine mechanically coupled to the cabin blower compressor; and a controller configured to control the cabin blower and rotor bow mitigation system so that: in a cabin blower mode of operation, rotation of the cabin blower compressor is mechanically driven by one or more of the spools (26, 27), wherein the rotation of the cabin blower compressor in the cabin blower mode compresses air received through a manifold and provides a compressed output flow of air for delivery to a cabin of the aircraft; in a rotor bow mitigation mode of operation, rotation of the cabin blower compressor is driven by the electric machine using electrical power from an electrical power source, wherein the rotation of the cabin blower compressor in the rotor bow mitigation mode sucks or blows a flow of air through a core of the gas turbine engine to remove heat from the core. a cabin blower compressor mechanically coupled to one or more spools (26, 27) of the gas turbine engine; an electric machine mechanically coupled to the cabin blower compressor; and a controller configured to control the cabin blower and rotor bow mitigation system so that: in a cabin blower mode of operation, rotation of the cabin blower compressor is mechanically driven by one or more of the spools (26, 27), wherein the rotation of the cabin blower compressor in the cabin blower mode compresses air received through a manifold and provides a compressed output flow of air for delivery to a cabin of the aircraft; in a rotor bow mitigation mode of operation, rotation of the cabin blower compressor is driven by the electric machine using electrical power from an electrical power source, wherein the rotation of the cabin blower compressor in the rotor bow mitigation mode sucks or blows a flow of air through a core of the gas turbine engine to remove heat from the core. in a cabin blower mode of operation, rotation of the cabin blower compressor is mechanically driven by one or more of the spools (26, 27), wherein the rotation of the cabin blower compressor in the cabin blower mode compresses air received through a manifold and provides a compressed output flow of air for delivery to a cabin of the aircraft; in a rotor bow mitigation mode of operation, rotation of the cabin blower compressor is driven by the electric machine using electrical power from an electrical power source, wherein the rotation of the cabin blower compressor in the rotor bow mitigation mode sucks or blows a flow of air through a core of the gas turbine engine to remove heat from the core.
A pharmaceutical formulation of neuregulin comprising: (a) a NRG polypeptide, and (b) a buffering agent, wherein said formulation has a pH of about 2.0, about 2.1, about 2.2, about 2.3, about 2.4, about 2.5, about 2.6, about 2.7, about 2.8, about 2.9, about 3.0, about 3.1, about 3.2, about 3.3, about 3.4, about 3.5, about 3.6, about 3.7, about 3.8, about 3.9, about 4.0, about 4.1, about 4.2, about 4.3, about 4.4, about 4.5, about 4.6, about 4.7, about 4.8, about 4.9, about 5.0, about 5.1, about 5.2, about 5.3, about 5.4, about 5.5, about 5.6, or about 5.7.
A method for providing a ski boot of the type that comprises a shell designed to accommodate the foot of a user and is provided with at least two contoured portions (3a, 4a), respectively a front contoured portion arranged at the toe of said shell, and a rear contoured portion arranged at the heel of said shell, said method comprising, in sequence, the steps of: - providing said at least two contoured portions (3a, 4a) by molding plastic material; - providing said shell by injection molding of a plastic material that has different characteristics from the plastic material with which said at least two contoured portions (3a, 4a) are made; - making a sole; and - applying said sole to the lower surface of said shell. - providing said at least two contoured portions (3a, 4a) by molding plastic material; - providing said shell by injection molding of a plastic material that has different characteristics from the plastic material with which said at least two contoured portions (3a, 4a) are made; - making a sole; and - applying said sole to the lower surface of said shell.
A method of wireless communication by a user equipment, UE, comprising: transmitting, to a base station, a capability of the UE to transmit data in a first message of a random access procedure, wherein the first message includes a preamble for the random access procedure; receiving pre-configured uplink, UL, resources from the base station in a radio resource control, RRC, configured unicast message, wherein the pre-configured UL resources include at least one of shared UL resources and dedicated UL resources; and transmitting data in the first message of the random access procedure using the pre-configured UL resources. transmitting, to a base station, a capability of the UE to transmit data in a first message of a random access procedure, wherein the first message includes a preamble for the random access procedure; receiving pre-configured uplink, UL, resources from the base station in a radio resource control, RRC, configured unicast message, wherein the pre-configured UL resources include at least one of shared UL resources and dedicated UL resources; and transmitting data in the first message of the random access procedure using the pre-configured UL resources.
A compound of formula, or a pharmaceutically acceptable salt thereof wherein A is CH or N; B is CH or N; D is CH or N; E is CH or N; R 1 is -CN or a group -C -VR 2; V is selected from the group consisting of -O-, -(CH 2)- and -NH-; R 2 is hydrogen or -(C 1 -C 6)alkyl, optionally substituted with one or more substituents selected from the group consisting of halogen, OR 3 and -NR 3 R 7; R 3 is hydrogen or optionally substituted (C 1 -C 6)alkyl; R 4 is selected from -CF 3 and -CHF 2, R 5 is a group selected from j is 0 or an integer ranging from 1 to 4; y is 0 or an integer ranging from 1 to 4; L and T are independently a 4 to 8-membered heterocycloalkyl ring bearing an - X- group at any of the free positions; X is selected from -O-, -S-, -S(O 2)- and -NR 6; W is selected from the group consisting of -N(R 3)-, -O-, -C -, -OC N(R 3)-, -N(R 3)C N(R 3)-, -C N(R 3)-, -NR 3 C -, -SO 2 -, -SO 2 N(R 3)-, - NR 3 S(O 2)-, -S-, -C O-, -OC -, optionally substituted (C 1 -C 6)alkylene, optionally substituted (C 3 -C 6)cycloalkylene and optionally substituted (C 4 -C 7)heterocycloalkylene; G is hydrogen or is selected from the group consisting of halogen, -CN, -N(R 3)(R 7), -OR 3, -OC OR 3, -OC NR 3 R 7, -N(R 3)C N(R 3)(R 7), -N(R 3)C N(R 3)(R 7), -C N(R 3), -N(R 3)C R 7, -S(O 2)R 3, -S(O 2)N(R 3)(R 7), -N(R 3)S(O 2)(R 7), -SR 3, -C OR 3, -OC R 3, optionally substituted (C 1 -C 6)alkyl, optionally substituted (C 3 -C 6)cycloalkyl and optionally mono or bi-substituted (C 4 -C 7)heterocycloalkyl; Ra is hydrogen or is selected from the group consisting of -OH, -NH 2 and optionally substituted (C 1 -C 6)alkyl; R 6 is hydrogen or is selected in the group consisting of -S(O 2)R 7, -CO 2 R 7, -CONR 3 R 7, -SO 2 NR 3 R 7 and optionally substituted (C 1 -C 6)alkyl; R 7 is hydrogen or is optionally substituted (C 1 -C 6)alkyl; wherein, unless otherwise specified, optionally substituted means optionally substituted by one or more substituents selected from the group consisting of (C 1 -C 6)alkyl, (C 1 -C 6)alkoxy, (C 1 -C 6)hydroxyalkyl, -OH, -NH 2, halogen, -CF 3 and -OCF 3; -NR 3 R 7 and pharmaceutically acceptable salts thereof, with the provisos that when y is an integer ranging from 1 to 4, W is -O- and j is 0, then G is not hydrogen or (C 1 -C 6)alkyl optionally substituted by one or more (C 1 -C 6)alkoxy; when y is an integer ranging from 1 to 4, W is -N(R 3)-, R 3 is hydrogen or (C 1 -C 6)alkyl and j is 0, then G is not hydrogen or (C 1 -C 6)alkyl; when y is 0, W is -C N(R 3)-, R 3 is hydrogen or (C 1 -C 6)alkyl and j is 0, then G is not H or (C 1 -C 6)alkyl optionally substituted with -NR 3 R 7, wherein R 3 and R 7 are independently H or (C 1 -C 6)alkyl; when y is 0, W is -S(O 2)- and j is 0, then G is not (C 1 -C 6)alkyl optionally substituted with -OH; when y is 0, W is -S(O 2)N(R 3)-, R 3 is H and j is 0, then G is not hydrogen; when y is 0, W is -S(O 2)N(R 3)-, R 3 is H or (C 1 -C 4)alkyl and j is 0, then G is not hydrogen or (C 1 -C 6)alkyl.
System for assisting reductive shaping of plants to form a desired 3D-shape by removing material, comprising: a tool configured to remove material from at least one plant by means of a cutting function performed by a working head of the tool, and localization means (5, 5') configured to determine a position of the working head relative to the desired 3D-shape, characterized by control means configured to deactivate the cutting or grinding function respectively when the determined position of the working head relative to the desired 3D-shape is such that the cutting function would remove material from an inside of the desired 3D-shape. a tool configured to remove material from at least one plant by means of a cutting function performed by a working head of the tool, and localization means (5, 5') configured to determine a position of the working head relative to the desired 3D-shape, characterized by control means configured to deactivate the cutting or grinding function respectively when the determined position of the working head relative to the desired 3D-shape is such that the cutting function would remove material from an inside of the desired 3D-shape.
A method for pairing an electronic device to a target electronic device to enable communication between the electronic device and the target electronic device, wherein the target electronic device is associated with a target person, and stores a set of facial features of the target person, the method comprising: using the electronic device to capture an image including a face of the target person; selecting the target person in the image; detecting the face of the target person in the image based on the selection; extracting at least one facial feature of the face of the target person in the image; and connecting the electronic device to the target device, the connection including sending, by the electronic device, a connection request including the at least one facial feature and receiving a connection response from the target device when the at least one facial feature matches at least one of the facial features of the set of facial features of the target person stored in the target device. using the electronic device to capture an image including a face of the target person; selecting the target person in the image; detecting the face of the target person in the image based on the selection; extracting at least one facial feature of the face of the target person in the image; and connecting the electronic device to the target device, the connection including sending, by the electronic device, a connection request including the at least one facial feature and receiving a connection response from the target device when the at least one facial feature matches at least one of the facial features of the set of facial features of the target person stored in the target device.
Safety valve, for ducts carrying a gas flow (H 2), adapted to block the flow when liquid water is present in the gas, comprising a conduit (12, 14), for carrying the gas, having inside a material which is water-soluble and solid at room temperature or at use temperature between 0 and 50 °C, the conduit and the material being configured so that the material melts in contact with the water molecules and by fluidifying obstructs the conduit.
A method for the recovery of precipitates selected from the group of calcium nitrate, calcium phosphate, calcium sulphate and aluminium hydroxophosphate of phosphate-containing ashes from waste incineration plants and for the optional manufacture of phosphoric acid, the method at least comprising the recovery of calcium sulphate, characterized in that a) the solids/ashes are reacted with nitric acid or phosphoric acid or a mineral acid mixture of the two acids, b) the acid-insoluble part of the solids is separated, c) a pH value of <1 is set by adding sulfuric acid to the filtrate or supernatant, and calcium sulphate-precipitate is recovered and separated, and d) the filtrate or the supernatant is at least partially returned for use in step a), e) optionally, the filtrate or the supernatant is concentrated, preferably by evaporation, to recover phosphoric acid or nitrous phosphoric acid, f) optionally, calcium phosphate-precipitate and calcium nitrate-precipitate are recovered and separated by adding calcium oxide or calcium carbonate to the filtrate or to the supernatant. a) the solids/ashes are reacted with nitric acid or phosphoric acid or a mineral acid mixture of the two acids, b) the acid-insoluble part of the solids is separated, c) a pH value of <1 is set by adding sulfuric acid to the filtrate or supernatant, and calcium sulphate-precipitate is recovered and separated, and d) the filtrate or the supernatant is at least partially returned for use in step a), e) optionally, the filtrate or the supernatant is concentrated, preferably by evaporation, to recover phosphoric acid or nitrous phosphoric acid, f) optionally, calcium phosphate-precipitate and calcium nitrate-precipitate are recovered and separated by adding calcium oxide or calcium carbonate to the filtrate or to the supernatant.
A method of obtaining a mixture of 2'-O-fucosyllactose (2'-FL) and difucosyllactose, comprising the step of culturing, in an aqueous culture medium containing lactose, a genetically modified bacterium having a single recombinant glycosyl transferase, which is a 1,2-fucosyl transferase, capable of modifying lactose or an intermediate in the biosynthetic pathway of 2'-FL or DFL from lactose and that is necessary for the synthesis of 2'-FL or DFL from lactose; the method being characterized by: - adding, to the culture medium, at least 75 grams of lactose per 1 litre of initial culture volume, preferably in a continuous manner, so that the final volume of the culture medium is not more than three-fold of the volume of the culture medium before the culturing; or - adding the lactose, preferably in a continuous manner, to the culture medium for more than 4 days, preferably up to 7 days; or - adding, to the culture medium, preferably in a continuous manner, for more than 4 days, preferably up to 7 days, at least 50, preferably at least 75 grams of lactose per 1 litre of initial culture volume, so that the final volume of the culture medium is not more than three-fold of the volume of the culture medium before the culturing; wherein the internalization of the lactose takes place via an active transport mechanism under the influence of a lactose permease. - adding, to the culture medium, at least 75 grams of lactose per 1 litre of initial culture volume, preferably in a continuous manner, so that the final volume of the culture medium is not more than three-fold of the volume of the culture medium before the culturing; or - adding the lactose, preferably in a continuous manner, to the culture medium for more than 4 days, preferably up to 7 days; or - adding, to the culture medium, preferably in a continuous manner, for more than 4 days, preferably up to 7 days, at least 50, preferably at least 75 grams of lactose per 1 litre of initial culture volume, so that the final volume of the culture medium is not more than three-fold of the volume of the culture medium before the culturing;
Method of canceling a noise present in a data signal received on an electric 2-wire line, implemented by a transceiver device including: • a first transformer, called a differential mode circuit, including a primary side (TDp) and a secondary side (TDs), the primary side being connected by two wires to the 2-wire line; • a second transformer, called a common mode circuit, including a primary side (TCp) and a secondary side (TCs), the primary side being connected by a wire (c) to the primary side (TDp) of the differential mode circuit, and to a ground by another wire; the method including the following steps during an adjustment stage (PhR): • obtaining a first voltage value (Vmd) on the 2-wire line, called a differential mode voltage; • obtaining a second voltage value (Vmd') corresponding to a voltage at the two wires of the secondary side of the common mode circuit, called a common mode image voltage, resulting from said differential mode voltage; • calculating the ratio (Rn) between the second value and the first value, called a noise conversion ratio; and the method including the following steps during a cancellation stage (PhA), subsequent to the adjustment stage: • receiving the data signal from the 2-wire line; • at the same time as the receiving step, obtaining a third voltage value (Vmd") corresponding to the voltage at the two wires of the secondary side of the common mode circuit; • canceling (F3, F4) the noise in the data signal, by subtracting an estimate of the noise (Bn'), the estimate being calculated by dividing the third value by said conversion ratio. • a first transformer, called a differential mode circuit, including a primary side (TDp) and a secondary side (TDs), the primary side being connected by two wires to the 2-wire line; • a second transformer, called a common mode circuit, including a primary side (TCp) and a secondary side (TCs), the primary side being connected by a wire (c) to the primary side (TDp) of the differential mode circuit, and to a ground by another wire; • obtaining a first voltage value (Vmd) on the 2-wire line, called a differential mode voltage; • obtaining a second voltage value (Vmd') corresponding to a voltage at the two wires of the secondary side of the common mode circuit, called a common mode image voltage, resulting from said differential mode voltage; • calculating the ratio (Rn) between the second value and the first value, called a noise conversion ratio; • receiving the data signal from the 2-wire line; • at the same time as the receiving step, obtaining a third voltage value (Vmd") corresponding to the voltage at the two wires of the secondary side of the common mode circuit; • canceling (F3, F4) the noise in the data signal, by subtracting an estimate of the noise (Bn'), the estimate being calculated by dividing the third value by said conversion ratio.