mhurhangee/ep-ind-claims huggingface dataset:
An annular combustion chamber wall (46, 48), the annular combustion chamber wall (46, 48) is hollow and has a first surface and a second surface, the annular combustion chamber wall (46, 48) comprises a plurality of polyhedron shaped chambers defined by a matrix of integral interconnected walls, the chambers are arranged in at least two layers (A, B, C) between the first surface and the second surface, the integral interconnected walls of the chambers in a first layer defining the first surface of the annular combustion chamber wall (46, 48), the integral interconnected walls of the chambers in a second layer defining the second surface of the annular combustion chamber wall (46, 48), the chambers in each layer (A, B, C) are fluidly interconnected to the chambers in each adjacent layer (A, B, C) by apertures extending through the integral interconnected walls of the chambers for the flow of coolant there-between, adjacent chambers share a common wall, the integral interconnected walls of the chambers in the first layer have apertures extending there-through from the first surface to supply coolant into the first layer and the integral interconnected walls of the chambers in the second layer have apertures extending there-through to the second surface to supply coolant from the second layer into the combustion chamber, the annular combustion chamber wall (46, 48) comprises circumferential segments, characterised in that the circumferential ends of the segments of the annular combustion chamber wall (46, 48) are provided with a tongue or a groove to locate in or on a groove or a tongue of an adjacent segment of the annular combustion chamber wall (46, 48), the segments are joined together, the circumferential ends of the segments have layers of polyhedron shaped chambers.
A method of controlling a walking assistance apparatus, comprising: receiving at least one abnormal gait type selected from a plurality of abnormal gait types; generating torque parameters for an assist torque profile based on a first torque and a second torque, the first torque being a torque mapped to each joint of a user for each of the plurality of abnormal gait types, and the second torque being a torque to be generated by the walking assistance apparatus; receiving the torque parameters; and controlling a walking assistance apparatus based on the at least one abnormal gait type, wherein the controlling comprises: generating an assist torque profile based on the at least one abnormal gait type, the assist torque profile including the generated torque parameters; and controlling the walking assistance apparatus based on the assist torque profile. receiving at least one abnormal gait type selected from a plurality of abnormal gait types; generating torque parameters for an assist torque profile based on a first torque and a second torque, the first torque being a torque mapped to each joint of a user for each of the plurality of abnormal gait types, and the second torque being a torque to be generated by the walking assistance apparatus; receiving the torque parameters; and controlling a walking assistance apparatus based on the at least one abnormal gait type, wherein the controlling comprises: generating an assist torque profile based on the at least one abnormal gait type, the assist torque profile including the generated torque parameters; and controlling the walking assistance apparatus based on the assist torque profile. generating an assist torque profile based on the at least one abnormal gait type, the assist torque profile including the generated torque parameters; and controlling the walking assistance apparatus based on the assist torque profile.
A method for managing the mobility of a mobile node in a plurality of telecommunications networks (10, 20), said plurality of telecommunications networks (10, 20) comprising at least a first telecommunications network and a second telecommunications network, said mobile node comprising: - a memory zone, in which is stored a set of mobility data of the mobile node in the plurality of networks (10, 20), - a first module for managing the mobility of said mobile node configured to establish through the first network, from at least one mobility datum, a mobility session with a home agent, and - a second module for managing the mobility of said mobile node configured to establish through the second network, from at least one mobility datum, a mobility session with said home agent, the first module being configured to access the set of mobility data stored in the memory zone, the method comprising a step of obtaining, by the second module, from the first module, at least one mobility datum of the set of data accessible by the first module. - a memory zone, in which is stored a set of mobility data of the mobile node in the plurality of networks (10, 20), - a first module for managing the mobility of said mobile node configured to establish through the first network, from at least one mobility datum, a mobility session with a home agent, and - a second module for managing the mobility of said mobile node configured to establish through the second network, from at least one mobility datum, a mobility session with said home agent, the first module being configured to access the set of mobility data stored in the memory zone, the method comprising a step of obtaining, by the second module, from the first module, at least one mobility datum of the set of data accessible by the first module.
Method for defence against an attack by a missile (14, 16, 36), in which the attacking missile (14, 16, 36) is identified as such, a decision is made as to whether the missile (14, 16, 36) should be engaged, and if the decision is positive, the missile (14, 16, 36) is engaged by a defence system on a defence vehicle (4, 8, 38), wherein one decision criterion included in the decision is whether the missile (14, 16, 36) represents a danger for at least one object (2, 6, 38) in a group of objects (2, 6, 38) which are moving with the defence vehicle (4, 8, 38), and an assessment of the danger takes account of a protection area (28, 30), which moves with a movement of the object (2, 6, 38), around the object (2, 6, 38), within which detonation of the missile (14, 16, 36) would cause at least a predetermined amount of damage to the object (2, 6, 38), and whether the missile (14, 16, 36) is predicted to reach this protection area (28, 30), wherein a parameter of the protection area (28, 30) is made dependent on a characteristic of the object (2, 6, 38) which is to be protected and is associated with the protection area (28, 30), the object (2, 6, 38) is networked with the defence system and signals its location to the defence system, and positioning data is passed to the object (2, 6, 38), which indicates a change in the object position in order to improve defence of the object (2, 6, 38) by the defence system, wherein the group contains at least two vehicles, each having an identification means, and at least two defence vehicles (4, 8, 38), each having a defence system, and identification data from the identification means is fused in order to identify the missile (14, 16, 36), and the defence systems interchange defence data in order to jointly engage the missile (14, 16, 36), and are automatically interconnected in order to carry out a joint defence process, when the two defence vehicles (4, 8, 38) are within a predetermined distance of one another, and a decision is made, taking account of an aspect angle, as to which of the defence systems will engage the missile (14, 16, 36).
A method for manufacturing at least one electrolyte layer of an electrochemical cell, the method comprising: a. processing a matrix containing at least one organic polymer, a precursor or a prepolymer thereof, a solvent for the at least one organic polymer, and a pulverulent solid to a pasty mass; b. solidifying the pasty mass and generating a layer of the pasty mass; c. adding an ion-conducting liquid to the layer generated of the solidified pasty mass, wherein the ion-conducting liquid is an electrolyte, to which an alcohol or another polar, water mixable organic solvent is added up to a content of not more than 70 vol. %. a. processing a matrix containing at least one organic polymer, a precursor or a prepolymer thereof, a solvent for the at least one organic polymer, and a pulverulent solid to a pasty mass; b. solidifying the pasty mass and generating a layer of the pasty mass; c. adding an ion-conducting liquid to the layer generated of the solidified pasty mass, wherein the ion-conducting liquid is an electrolyte, to which an alcohol or another polar, water mixable organic solvent is added up to a content of not more than 70 vol. %.
A panel for a drainage box, the panel comprising: a central portion comprising one or more openings for passage of liquid therethrough; side portions surrounding the central portion; and at least one connection element on each side portion, each connection element comprising: a receiving portion and a protruding portion, characterized in that the receiving portion is shaped complementary to the protruding portion, such that a second panel having a similar connection element can secure to the first panel by connecting through engaging the respective connection elements, such that the protruding portion of the connection element of the first panel fits into the receiving portion of the connection element of the second panel, and the receiving portion of the connection element of the first panel receives the protruding portion of the connection element of the second panel, and wherein the protruding portion and/or the receiving portion are at least partially tapered between a first face of the panel and a second face of the panel. a central portion comprising one or more openings for passage of liquid therethrough; side portions surrounding the central portion; and at least one connection element on each side portion, each connection element comprising: a receiving portion and a protruding portion, characterized in that the receiving portion is shaped complementary to the protruding portion, such that a second panel having a similar connection element can secure to the first panel by connecting through engaging the respective connection elements, such that the protruding portion of the connection element of the first panel fits into the receiving portion of the connection element of the second panel, and the receiving portion of the connection element of the first panel receives the protruding portion of the connection element of the second panel, and wherein the protruding portion and/or the receiving portion are at least partially tapered between a first face of the panel and a second face of the panel.
Cooling system of an internal combustion engine comprising a closed cooling circuit in which a cooling fluid circulates, said cooling circuit comprising at least one pump of the cooling circuit, at least one heat exchanger for exchanging heat with an element or an item of equipment of said internal combustion engine (3, 4, 5), a first thermostat, and a radiator of the cooling circuit, said cooling system further comprising a closed circuit according to the Rankine cycle in which a working fluid circulates, said circuit according to said Rankine cycle comprising at least one pump of the Rankine circuit, an evaporator for exchanging heat between said cooling fluid and said working fluid, at least one turbine and at least one condenser of the Rankine circuit (22, 29), said cooling circuit having a second thermostat, within said cooling circuit, said evaporator being connected to an outlet of said first thermostat and to an inlet of said second thermostat, said first and second thermostats (6; 20) being regulation devices comprising at least one inlet (12; 31) and two outlets (17, 18; 27, 28), the inlet (12; 31) and the outlets (17, 18; 27, 28) being connected as a function of the opening of an internal valve, of which the opening depends on the temperature of the fluid passing through said thermostat (6; 20): when the temperature of the fluid is lower than a threshold, only one outlet (17; 27) is connected to the inlet (12; 31), and when the temperature of the fluid is higher than or equal to this threshold, both outlets (17, 18; 27, 28) are connected to the inlet (12; 31), the outlet of the radiator of the cooling circuit being connected to the pump of the cooling circuit, a first outlet of the second thermostat, corresponding to the outlet of the second thermostat that is still connected to the inlet of the second thermostat, being connected to the inlet of the pump of the cooling circuit, characterized in that the inlet of the first thermostat is connected to the outlet of the heat exchanger and in that a second outlet of the second thermostat, corresponding to the outlet of the second thermostat that is connected to the inlet of the second thermostat only when the temperature of the cooling fluid exceeds the threshold, is connected to the radiator of the cooling circuit.
Method for supplying electrical loads (3, 31, 32) of a vehicle with electrical energy by means of auxiliary converters (1, 11, 12) switched in parallel on the AC voltage side, wherein in the event of a short circuit to ground, the flow of current between auxiliary converter (1, 11, 12) and a grounded N conductor of an energy supply network (2, 22) is interrupted, wherein the auxiliary converters switched in parallel on the AC voltage side are operated with fundamental wave and pulse synchronicity.
A side mirror for a vehicle comprising: a mirror housing mounted on an exterior of the vehicle; and a mirror part supported by the mirror housing and divided into a plurality of mirror areas (A, B, C) with an aspherical shape in a horizontal direction from an internal side to an external side thereof, the internal side being close to the vehicle and the external side being far from the vehicle, wherein the mirror part is formed so that the mirror areas have the same optical power at borders thereof as the optical power of each of the mirror areas gradually increases from the internal side to the external side, each of the mirror areas has a constant optical power rate, the mirror areas comprise three areas divided as an inside mirror area, a central mirror area, and an outside mirror area, and the optical power rate of the outside mirror area is higher than that of the central mirror area, and the optical power rate of the central mirror area is higher than that of the inside mirror area.. a mirror housing mounted on an exterior of the vehicle; and a mirror part supported by the mirror housing and divided into a plurality of mirror areas (A, B, C) with an aspherical shape in a horizontal direction from an internal side to an external side thereof, the internal side being close to the vehicle and the external side being far from the vehicle, wherein the mirror part is formed so that the mirror areas have the same optical power at borders thereof as the optical power of each of the mirror areas gradually increases from the internal side to the external side, each of the mirror areas has a constant optical power rate, the mirror areas comprise three areas divided as an inside mirror area, a central mirror area, and an outside mirror area, and the optical power rate of the outside mirror area is higher than that of the central mirror area, and the optical power rate of the central mirror area is higher than that of the inside mirror area..
A filtration barrier, comprising: a nanofiber layer that includes a plurality of polymer-based nanofibers bearing positive electrostatic charge and a biocide layer that includes a biocide and a plurality of nanofibers, the nanofibers of the biocide layer being made of a polymer that includes a first reactive group, wherein a second reactive group of the biocide binds to the first reactive group by a crosslinker during a one-step process of making biocide-crosslinked nanofibers via electrospinning, and the nanofiber layer is attached onto the biocide layer, and the biocide accounts for 0.5% - 2% by weight in the biocide layer, and a porosity of the biocide layer ranges from 90% - 98%. a nanofiber layer that includes a plurality of polymer-based nanofibers bearing positive electrostatic charge and a biocide layer that includes a biocide and a plurality of nanofibers, the nanofibers of the biocide layer being made of a polymer that includes a first reactive group, wherein a second reactive group of the biocide binds to the first reactive group by a crosslinker during a one-step process of making biocide-crosslinked nanofibers via electrospinning, and the nanofiber layer is attached onto the biocide layer, and the biocide accounts for 0.5% - 2% by weight in the biocide layer, and a porosity of the biocide layer ranges from 90% - 98%.
Method for operating a gas turbine with a compressor, a turbine and a sequential combustor arrangement with a first combustor comprising a first burner to compressed gas leaving the compressor and a first combustion chamber, a dilution gas admixer to the first combustor combustion products leaving the first combustion chamber during operation, a second burner and a second combustion chamber, wherein the first combustor, the dilution gas admixer, the second burner, and second combustion chamber are arranged sequentially in a fluid flow connection, the method comprising the steps of - compressing the inlet gas in the compressor, - admixing a first fuel to at least a portion of the compressed gas in the first burner, - burning the mixture in the first combustion chamber to obtain first combustor combustion products, wherein the dilution gas is admixed via at least one dilution gas opening into the dilution gas admixer with a first momentum flux and in that the first combustor combustion products are admitted to the dilution gas admixer with a second momentum flux, wherein the ratio of the first momentum flux to the second momentum flux is kept in a defined interval relative a design ratio of first momentum flux to second momentum flux, characterized in that the ratio of the first momentum flux to the second momentum flux is increased relative to the ratio at design conditions of the gas turbine at a load below 60% relative load of the gas turbine. - compressing the inlet gas in the compressor, - admixing a first fuel to at least a portion of the compressed gas in the first burner, - burning the mixture in the first combustion chamber to obtain first combustor combustion products, wherein the dilution gas is admixed via at least one dilution gas opening into the dilution gas admixer with a first momentum flux and in that the first combustor combustion products are admitted to the dilution gas admixer with a second momentum flux, wherein the ratio of the first momentum flux to the second momentum flux is kept in a defined interval relative a design ratio of first momentum flux to second momentum flux, characterized in that the ratio of the first momentum flux to the second momentum flux is increased relative to the ratio at design conditions of the gas turbine at a load below 60% relative load of the gas turbine.
An unheated fuel-line assembly, in particular for use in a motor vehicle, where an inner tube is provided as a fuel line and an outer tube is provided that surrounds the inner tube with a spacing a, and where an inner surface of the outer tube that faces toward the inner tube is formed with a plurality of grooves that extend at least over a portion of the length of the outer tube longitudinally of the outer tube, characterized in that, an angular width b or the greatest width b of the grooves is 0.45 to 0.85 mm, preferably 0.50 to 0.80 mm, and more preferably 0.55 to 0.75 mm.
A washer intended to be used in a screwed assembly, said washer comprising two opposite faces (21, 22), said washer being intended to be compressed between said two faces (21, 22) in said assembly, characterised in that it comprises two materials (23, 24) that both extend from one face to the other (21, 22), in that a first material of said two materials is less stiff than a second material of said two materials, in that the stiffnesses of said two materials are defined so as to allow a deformation of said first material in its elastic range and of said second material in its plastic range.
A half bearing (100, 100', 200) comprising a bearing member (102, 102', 202) having at least an external backing layer (104, 104', 204) and an internal bearing lining layer (106, 106', 206) with an optional bearing overlay layer defining a concave substantially semi-cylindrical bearing surface (112, 112', 212) extending between first and second axial ends (110A, 110B; 110A', 1108'; 210A, 210B) of the half bearing (100, 100', 200), wherein the bearing lining layer (106, 106', 206) is provided with at least first and second seals (108A, 108B; 108A', 108B', 108C', 108D'; 208A, 208B) at or adjacent to the first and second axial ends (110A, 110B; 110A', 110B'; 210A, 210B), wherein the first and second seals (108A, 108B; 108A', 108B', 108C', 108D'; 208A, 208B) project from and are formed directly on the bearing lining layer (106, 106', 206) and extend at least partially circumferentially across the bearing lining layer (106, 106', 206), characterized in that the first and second seals are made of a polymer and each comprises a plurality of sub-seals, and/or the bearing surface is provided with at least a further seal (108C', 108D') intermediate the first and second seals (108A', 108B') which are made of a polymer.
A method, comprising: measuring for a first display device having a display device design including an optical medium having an optical response, luminance variation over time at a plurality of different front plane common electrode drive voltages; determining from said measurements a relationship between a change in the front plane common electrode drive voltage and a corresponding change in luminance variation over time; measuring luminance variation over time at a first front plane common electrode drive voltage for another display device of said display device design including said same optical medium having said optical response; and determining on the basis of said relationship a correction to the first drive voltage to minimise the luminance variation over time in said another display device.
A method of controlling a processor configured by an image processing application to estimate distances to objects within a scene from a set of images captured from different cameras in a set of cameras mounted within a headset that includes a display via which images can be displayed, the method comprising: using an illumination light source to illuminate the scene with a projected texture; generating an initial depth map of the illuminated scene; identifying near-field and far-field portions of the scene based on the initial depth map, wherein the near-field portions are at a depth in the scene less than a certain threshold and the far-field portions are at a depth in the scene greater than the certain threshold; refining the initial depth map for the near-field portions of the scene using only image data captured from a near-field set of cameras (403, 404, 405, 406); and refining the initial depth map for the far-field portions of the scene using only image data captured from a far-field set of cameras (401, 402, 403, 404, 406); wherein a baseline distance between cameras in the near-field set of cameras is less than a baseline distance between cameras in the far-field set of cameras. using an illumination light source to illuminate the scene with a projected texture; generating an initial depth map of the illuminated scene; identifying near-field and far-field portions of the scene based on the initial depth map, wherein the near-field portions are at a depth in the scene less than a certain threshold and the far-field portions are at a depth in the scene greater than the certain threshold; refining the initial depth map for the near-field portions of the scene using only image data captured from a near-field set of cameras (403, 404, 405, 406); and refining the initial depth map for the far-field portions of the scene using only image data captured from a far-field set of cameras (401, 402, 403, 404, 406);