mhurhangee/ep-ind-claims huggingface dataset:
A method for an application on a computing device to write data to a storage medium associated with the computing device, the data to be written to a secure storage area physically or logically associated with an object on the storage medium, the method comprising: the application and the storage medium setting up a secure channel therebetween by establishing a session key, KS, as a shared secret; the application selecting a data key, KA, and protecting the data therewith to result in KA(data); the application encrypting KA(data) with the session key, KS, to result in KS(KA(data)) and sending same to the storage medium; the storage medium receiving KS(KA(data)) and decrypting same with KS to result in KA(data), locating the secure storage area associated with the object, and storing such KA(data) in the located secure storage area. the application and the storage medium setting up a secure channel therebetween by establishing a session key, KS, as a shared secret; the application selecting a data key, KA, and protecting the data therewith to result in KA(data); the application encrypting KA(data) with the session key, KS, to result in KS(KA(data)) and sending same to the storage medium; the storage medium receiving KS(KA(data)) and decrypting same with KS to result in KA(data), locating the secure storage area associated with the object, and storing such KA(data) in the located secure storage area.
Electromechanical power steering system for a motor vehicle, comprising a driving worm which is driven by an electric motor and interacts with a worm gear which is coupled to a steering shaft, wherein the driving worm is mounted, in such a way that it can rotate about its worm axis, in a bearing which is held in a mount, and the mount prestresses the driving worm in the direction of the worm gear, wherein the mount is arranged so as to be pivotable about a pivoting axis which is embodied essentially parallel to the worm axis, characterized in that the mount is torsionally weak about a torsion axis which is arranged perpendicularly with respect to the worm axis.
A method for producing a porous metal foil comprising - causing a metal foil together with a plastic laminate sheet to pass through a gap between a pattern roll, which has fine diamond particles having particle sizes of 50 - 500 μm on the surface, and a metal roll opposing said pattern roll, to press the fine diamond particles to said metal foil together with said plastic laminate sheet, thereby forming fine pores in said metal foil; and - peeling said plastic laminate sheet from said metal foil after forming the pores; said plastic laminate sheet being constituted by a first plastic layer of polyesters and a second plastic layer of polyethylenes or polyvinyl chloride; and the pressing of said metal foil being conducted with said metal foil on the side of said pattern roll, with said first plastic layer on the side of said metal foil, and with said second plastic layer on the side of said metal roll. - causing a metal foil together with a plastic laminate sheet to pass through a gap between a pattern roll, which has fine diamond particles having particle sizes of 50 - 500 μm on the surface, and a metal roll opposing said pattern roll, to press the fine diamond particles to said metal foil together with said plastic laminate sheet, thereby forming fine pores in said metal foil; and - peeling said plastic laminate sheet from said metal foil after forming the pores;
A method for engraving a pattern on a surface of a hamburger bread or «buns» bread, after baking the bread, by applying on the surface of the bread a laser beam emitted from an engraving unit equipped with a laser source, said method implementing the following steps: - focusing the laser beam at the outlet of the engraving unit, with an adjustable focal distance between the outlet of the engraving unit and a focal point of the laser beam; - adjusting the focal distance of the laser beam so that the surface of the bread to be engraved does not match with the focal point; - passing the laser beam on the surface of the bread to be engraved to carry out the engraving lines of the pattern, with several passes of the laser beam on each engraving line; - packaging in a sealed manner the bread after engraving. - focusing the laser beam at the outlet of the engraving unit, with an adjustable focal distance between the outlet of the engraving unit and a focal point of the laser beam; - adjusting the focal distance of the laser beam so that the surface of the bread to be engraved does not match with the focal point; - passing the laser beam on the surface of the bread to be engraved to carry out the engraving lines of the pattern, with several passes of the laser beam on each engraving line; - packaging in a sealed manner the bread after engraving.
Method for providing an input option on a touch-sensitive display surface, wherein the display surface is configured to display an image (7, 8), wherein the display surface comprises a ridge/depression, and wherein the display surface is suitable for displaying at least part of the image (7, 8) also on/in the ridge/depression, comprising: displaying a plurality of marking areas (7, 8) near or adjacent to the ridge/depression or at least partially on/in the ridge/depression; assigning in each case a section of the ridge/depression to each marking area (7, 8), in particular based on the spatial distance from the region taken up by the display of the marking area (7, 8) and, in the case of a marking area (7, 8) displayed on/in the ridge/depression, based on the region of the ridge/depression in which the marking area (7, 8) is at least partially displayed; detecting a movement of a finger of a user passing over the ridge/depression at a section of the ridge/depression assigned to one of the marking areas (7, 8); activating a function assigned to the marking area (7, 8) in response to the detection. displaying a plurality of marking areas (7, 8) near or adjacent to the ridge/depression or at least partially on/in the ridge/depression; assigning in each case a section of the ridge/depression to each marking area (7, 8), in particular based on the spatial distance from the region taken up by the display of the marking area (7, 8) and, in the case of a marking area (7, 8) displayed on/in the ridge/depression, based on the region of the ridge/depression in which the marking area (7, 8) is at least partially displayed; detecting a movement of a finger of a user passing over the ridge/depression at a section of the ridge/depression assigned to one of the marking areas (7, 8); activating a function assigned to the marking area (7, 8) in response to the detection.
A refrigerator comprising: a storage compartment formed in a cabinet of the refrigerator by a fixed insulation wall, the storage compartment being provided with an access opening; a door rotatably provided to the cabinet and configured to open and close the access opening; at least one drawer provided in the storage compartment; a camera fixed to a ceiling of the storage compartment; a controller; and a display; characterized in that: the camera is configured to photograph: - a first region for storing of food arranged in a space in the storage compartment outside the drawer, and - a second region for storing of food arranged in an internal space of the drawer in the storage compartment; and wherein the controller is configured to separate, through a capturing time of a picture captured by the camera and containing both the first region and the second region, a first region picture and a second region picture from the picture to individually divide and store the first region picture and the second region picture; and wherein the display is configured to display a first region frame to display the first region picture allocated thereto and a second region frame to display the second region picture allocated thereto such that the first region frame and the second region frame are partitioned from each other. a storage compartment formed in a cabinet of the refrigerator by a fixed insulation wall, the storage compartment being provided with an access opening; a door rotatably provided to the cabinet and configured to open and close the access opening; at least one drawer provided in the storage compartment; a camera fixed to a ceiling of the storage compartment; a controller; and a display; the camera is configured to photograph: - a first region for storing of food arranged in a space in the storage compartment outside the drawer, and - a second region for storing of food arranged in an internal space of the drawer in the storage compartment; and - a first region for storing of food arranged in a space in the storage compartment outside the drawer, and - a second region for storing of food arranged in an internal space of the drawer in the storage compartment; and wherein the controller is configured to separate, through a capturing time of a picture captured by the camera and containing both the first region and the second region, a first region picture and a second region picture from the picture to individually divide and store the first region picture and the second region picture; and
Process for preparing a scalp equivalent, characterized in that interfollicular scalp keratinocytes are seeded and cultured on a dermal equivalent, the said dermal equivalent comprising collagen and interfollicular scalp fibroblasts, said process comprising the step of obtaining said interfollicular scalp keratinocytes from a scalp sample and removing beforehand the keratinocytes of the outer epithelial sheath.
Laser source, comprising: ∘ a substrate, referred to as the functionalized substrate, comprising a waveguide, referred to as the integrated waveguide, • said waveguide being formed from a stack of a first portion and of a second portion, an upper face of the first portion being at least partially coated with a second portion, and • comprising at least one Bragg grating; and ∘ a semiconductor pad, resting on the functionalized substrate, comprising a gain medium located in a waveguide that is referred to as the active waveguide, the active waveguide being located perpendicular to the integrated waveguide and oriented parallel thereto, the two waveguides (12; 22) being optically coupled to each other, ∘ characterized in that the Bragg grating is located in the upper face of the first portion, and is covered by the second portion. ∘ a substrate, referred to as the functionalized substrate, comprising a waveguide, referred to as the integrated waveguide, • said waveguide being formed from a stack of a first portion and of a second portion, an upper face of the first portion being at least partially coated with a second portion, and • comprising at least one Bragg grating; and • said waveguide being formed from a stack of a first portion and of a second portion, an upper face of the first portion being at least partially coated with a second portion, and • comprising at least one Bragg grating; and ∘ a semiconductor pad, resting on the functionalized substrate, comprising a gain medium located in a waveguide that is referred to as the active waveguide, the active waveguide being located perpendicular to the integrated waveguide and oriented parallel thereto, the two waveguides (12; 22) being optically coupled to each other, ∘ characterized in that the Bragg grating is located in the upper face of the first portion, and is covered by the second portion.
Use of a smectite clay that has been pre-treated with a dispersant as a binder, wherein the smectite clay that has been pre-treated with a dispersant is used as a binder to form pellets such as iron ore pellets, and wherein the dispersant is a phosphate-type dispersant.
A multiport for making an optical connection, comprising: a shell; a plurality of connection ports disposed on the multiport with each connection port comprising an optical connector opening extending from an outer surface of the multiport into a cavity of the multiport and defining a connection port passageway, wherein each connection port is a portion of the shell; a plurality of modular adapter subassemblies disposed within the shell; characterized in that the multiport comprises: a plurality of securing features with each securing feature capable of translating and being associated with a respective connection port passageway for releasing and securing a suitable external fiber optic connector in the respective connection port passageway for making the optical connection, wherein a portion of each securing feature is part of a respective modular adapter sub-assembly; and a plurality of securing feature resilient members for biasing a portion of the respective securing feature. a shell; a plurality of connection ports disposed on the multiport with each connection port comprising an optical connector opening extending from an outer surface of the multiport into a cavity of the multiport and defining a connection port passageway, wherein each connection port is a portion of the shell; a plurality of modular adapter subassemblies disposed within the shell; characterized in that the multiport comprises: a plurality of securing features with each securing feature capable of translating and being associated with a respective connection port passageway for releasing and securing a suitable external fiber optic connector in the respective connection port passageway for making the optical connection, wherein a portion of each securing feature is part of a respective modular adapter sub-assembly; and a plurality of securing feature resilient members for biasing a portion of the respective securing feature. a plurality of securing features with each securing feature capable of translating and being associated with a respective connection port passageway for releasing and securing a suitable external fiber optic connector in the respective connection port passageway for making the optical connection, wherein a portion of each securing feature is part of a respective modular adapter sub-assembly; and a plurality of securing feature resilient members for biasing a portion of the respective securing feature.
A polycondensate comprising one or more repeat units of the formula, -Z-(CH 2) 2n+1 -Z'- in which the symbols and indices have the following meanings: Z, Z' is identical or different and is -X-C(=O)∼, -C(=O)-HN-CH 2 ∼, -C(=O)-O-CH 2 ∼, -NH-C(=O)-O-CH 2 ∼, -O-C(=O)-NH-CH 2 ∼; X is O or NH; ∼ indicates the bond to the group (CH 2) n and n is a number ≥ 10. Z, Z' is identical or different and is -X-C(=O)∼, -C(=O)-HN-CH 2 ∼, -C(=O)-O-CH 2 ∼, -NH-C(=O)-O-CH 2 ∼, -O-C(=O)-NH-CH 2 ∼; X is O or NH; ∼ indicates the bond to the group (CH 2) n and n is a number ≥ 10.
Measuring device for measuring the geometry of a hollow cylindrical object, wherein the measuring device comprises at least three inner measuring sensors with externally arranged sensing surfaces for applying to an inner wall surface of the hollow cylindrical object and at least three outer measuring sensors with internally arranged sensor surfaces for applying to an outer wall surface of the hollow cylindrical object, wherein in each case one of the inner measuring sensors corresponds to one of the outer measuring sensors, wherein in each case the outer measuring sensor is displaceable relative to the inner measuring sensor by way of a displacement means of the measuring device, for example a pneumatic cylinder, and in each case a path measurement sensor of the measuring device is configured to record the current position of the outer measuring sensor relative to the inner measuring sensor.
An information obtaining method, wherein the method is applied to a base station and comprises: sending first information to a mobility management entity, wherein the first information comprises a first request used to re-establish a radio resource control, RRC, connection, the first request is used to instruct the mobility management entity to send second information to the base station, the second information comprises context information of user equipment, UE, and indication information that is used to indicate connection establishment, and the UE is UE that requests RRC connection re-establishment; and receiving the second information; wherein the context information comprises capability information of the UE and quality of service, QoS, of the UE; characterised by: the second information is included in a connection establishment indication message comprising at least the following information elements: a message type, a MME UE S1-access protocol, S1AP, ID, a eNB UE S1AP ID, UE radio capability and UE level QoS parameters; or the second information is included in a downlink non-access stratum transport message comprising at least the following information elements: a message type, a MME UE S1-access protocol, S1AP, ID, a eNB UE S1AP ID, a NAS PDU, UE radio capability and UE level QoS parameters. sending first information to a mobility management entity, wherein the first information comprises a first request used to re-establish a radio resource control, RRC, connection, the first request is used to instruct the mobility management entity to send second information to the base station, the second information comprises context information of user equipment, UE, and indication information that is used to indicate connection establishment, and the UE is UE that requests RRC connection re-establishment; and receiving the second information; wherein the context information comprises capability information of the UE and quality of service, QoS, of the UE; characterised by: the second information is included in a connection establishment indication message comprising at least the following information elements: a message type, a MME UE S1-access protocol, S1AP, ID, a eNB UE S1AP ID, UE radio capability and UE level QoS parameters; or the second information is included in a downlink non-access stratum transport message comprising at least the following information elements: a message type, a MME UE S1-access protocol, S1AP, ID, a eNB UE S1AP ID, a NAS PDU, UE radio capability and UE level QoS parameters. the second information is included in a connection establishment indication message comprising at least the following information elements: a message type, a MME UE S1-access protocol, S1AP, ID, a eNB UE S1AP ID, UE radio capability and UE level QoS parameters; or the second information is included in a downlink non-access stratum transport message comprising at least the following information elements: a message type, a MME UE S1-access protocol, S1AP, ID, a eNB UE S1AP ID, a NAS PDU, UE radio capability and UE level QoS parameters.
A hydrogel contact lens comprising a polymerized monomer mix comprising a polymerizable monomer mixture comprising 0.1 to 75.8 percent by weight of a methacrylamide crosslinker, 0 to 41.2 percent by weight of 3-methacryloxypropyltris(trimethylsiloxy)silane (TRIS), 0 to 78 percent by weight of at least one hydrophilic monomer being selected from 1-vinyl-2-pyrrolidone, N,N'-dimethylacrylamide or 2-hydroxyethyl methacrylate (HEMA) or a mixture thereof, 0 to 48.6 percent by weight of hexanol, 0.1 to 29.9 weight percent of an mono ethylenically unsaturated polymerizable group containing polycarbosiloxane monomer, wherein the polycarbosiloxane monomer comprises at least one [silyl-alkyl-siloxanyl]-group, 0.1 to 1.0 percent by weight of an initiator and 90 to 200 parts per million of a visibility tint.
A method of manufacturing a housing for the stator of an axial flux permanent magnet machine, the machine having a stator comprising a set of coils wound on respective stator pole pieces and disposed circumferentially at intervals about an axis of the machine, and a rotor (14a,b) bearing a set of permanent magnets (24a,b) and mounted for rotation about said axis, and wherein said rotor (14a,b) and stator are spaced apart along said axis to define a gap (26a,b) therebetween in which magnetic flux in the machine is generally in an axial direction, the method comprising: fabricating a radial wall for said stator housing to be located in said gap (26a,b) between said rotor (14a,b) and said stator by: placing a resin membrane into a mould of an injection moulding machine; injection moulding a set of radial and circumferential reinforcing ribs onto portions of said membrane using a thermoplastic polymer bondable when molten with the resin of said membrane, the injection moulding process forming a set of the radial and circumferential reinforcing ribs on portions of a surface of the membrane and leaving cavities comprising portions without injection moulded thermoplastic polymer therebetween, each cavity for receiving a shoe of a stator pole piece; and manufacturing said housing using said radial wall. fabricating a radial wall for said stator housing to be located in said gap (26a,b) between said rotor (14a,b) and said stator by: placing a resin membrane into a mould of an injection moulding machine; injection moulding a set of radial and circumferential reinforcing ribs onto portions of said membrane using a thermoplastic polymer bondable when molten with the resin of said membrane, the injection moulding process forming a set of the radial and circumferential reinforcing ribs on portions of a surface of the membrane and leaving cavities comprising portions without injection moulded thermoplastic polymer therebetween, each cavity for receiving a shoe of a stator pole piece; and placing a resin membrane into a mould of an injection moulding machine; injection moulding a set of radial and circumferential reinforcing ribs onto portions of said membrane using a thermoplastic polymer bondable when molten with the resin of said membrane, the injection moulding process forming a set of the radial and circumferential reinforcing ribs on portions of a surface of the membrane and leaving cavities comprising portions without injection moulded thermoplastic polymer therebetween, each cavity for receiving a shoe of a stator pole piece; and manufacturing said housing using said radial wall.