mhurhangee/ep-ind-claims huggingface dataset:
Vehicle camera apparatus for capturing a vehicle environment lying ahead of a motor vehicle, having an image sensor device for recording images of the vehicle environment lying ahead, having an image evaluation device for evaluating at least one specified target object in at least one predetermined traffic region, wherein the image evaluation device is configured to evaluate a driving surface course lying ahead and also predetermined traffic regions present along the driving surface course lying ahead starting from the current position of the motor vehicle on a driving surface, wherein the image evaluation device is configured to ascertain in each case at least one image section with the evaluated predetermined traffic regions in the recorded images in dependence on the driving surface course lying ahead and to prioritize or to limit the evaluation of the specified target object to the at least one ascertained image section, wherein, if the driving surface course is straight and/or the driving surface width is constant, the position, the shape, the size of the at least one image section and/or the number of image sections remain unchanged, and wherein the shape of the at least one image section is matched by the image evaluation device to a position and/or perspective of the at least one predetermined traffic region that has changed in the images in a bend, on an incline and/or on a decline in the driving surface course, wherein the at least one predetermined traffic region along the driving surface has the same relative position with respect to the driving surface. having an image sensor device for recording images of the vehicle environment lying ahead, having an image evaluation device for evaluating at least one specified target object in at least one predetermined traffic region, wherein the image evaluation device is configured to evaluate a driving surface course lying ahead and also predetermined traffic regions present along the driving surface course lying ahead starting from the current position of the motor vehicle on a driving surface, wherein the image evaluation device is configured to ascertain in each case at least one image section with the evaluated predetermined traffic regions in the recorded images in dependence on the driving surface course lying ahead and to prioritize or to limit the evaluation of the specified target object to the at least one ascertained image section, wherein, if the driving surface course is straight and/or the driving surface width is constant, the position, the shape, the size of the at least one image section and/or the number of image sections remain unchanged, and wherein the shape of the at least one image section is matched by the image evaluation device to a position and/or perspective of the at least one predetermined traffic region that has changed in the images in a bend, on an incline and/or on a decline in the driving surface course, wherein the at least one predetermined traffic region along the driving surface has the same relative position with respect to the driving surface.
A method of manufacturing a kitchen knife comprising: a curving process step of processing a blade-side member composed of a stacked member including a stack of two or more different metallic materials in such a manner as to curve the blade-side member at least at a part thereof as viewed from a direction where a cutting edge is to be formed; a joining process step of joining the blade-side member and a spine-side member to each other; and a grinding and polishing process step (S3; S4) of performing at least one of grinding and polishing on the joined blade-side member and spine-side member to form a pattern, characterised in that the blade-side member before the curving process step is thinner than the spine-side member; and the blade-side member processed in the curving process step has a thickness viewed from the direction where the cutting edge is to be formed that is substantially equal to that of the spine-side member. a curving process step of processing a blade-side member composed of a stacked member including a stack of two or more different metallic materials in such a manner as to curve the blade-side member at least at a part thereof as viewed from a direction where a cutting edge is to be formed; a joining process step of joining the blade-side member and a spine-side member to each other; and a grinding and polishing process step (S3; S4) of performing at least one of grinding and polishing on the joined blade-side member and spine-side member to form a pattern, characterised in that the blade-side member before the curving process step is thinner than the spine-side member; and the blade-side member processed in the curving process step has a thickness viewed from the direction where the cutting edge is to be formed that is substantially equal to that of the spine-side member.
A multimodal chromatographic method of separating a first glycan component from a second glycan component of a glycan mixture, said method comprising: (a) contacting said glycan mixture with a multimodal chromatographic medium comprising an ion exchange chromatographic moiety bound to a first substrate and an uncharged chromatographic moiety bound to a second substrate, and an aqueous eluent comprising an electrolyte and an organic solvent under conditions effective to achieve said separating, thereby separating said first glycan component and said second glycan component, wherein said uncharged chromatographic moiety is a hydrophilic interaction chromatographic moiety and is a urea. (a) contacting said glycan mixture with a multimodal chromatographic medium comprising an ion exchange chromatographic moiety bound to a first substrate and an uncharged chromatographic moiety bound to a second substrate, and an aqueous eluent comprising an electrolyte and an organic solvent under conditions effective to achieve said separating, thereby separating said first glycan component and said second glycan component,
A cleansing and conditioning personal care composition for hair, comprising: a surfactant; a silicone; and a methylcellulose ether that gels at 45°C or less, and wherein the methylcellulose ether is present in a range from 0.1 wt% to 10 wt% by weight of the personal care composition wherein the personal care composition is free of cationic polymers selected from cationic cellulose derivatives, cationic guar derivatives, cationic methacrylamido polymers, polyquaternium-6, or polyquaternium-7. a surfactant; a silicone; and a methylcellulose ether that gels at 45°C or less, and wherein the methylcellulose ether is present in a range from 0.1 wt% to 10 wt% by weight of the personal care composition wherein the personal care composition is free of cationic polymers selected from cationic cellulose derivatives, cationic guar derivatives, cationic methacrylamido polymers, polyquaternium-6, or polyquaternium-7.
A method for developing a color product, said method comprising: a. storing development information in a database, said development information including characteristics related to development of a plurality of color products; b. receiving first color information from one or more color product development specialists, said first color information including at least a first color; c. identifying first development information in said database on the basis of said received first color information, said first development information including at least said first color; d. receiving data about at least one physical characteristic of said color product from the one or more color product development specialists; e. communicating said first development information using a global communication network between at least two color product development specialists; and f. determining, using said first development information, whether said at least one physical characteristic is compatible with said first color; whereby, this determination is used in a process of manufacturing said color product. a. storing development information in a database, said development information including characteristics related to development of a plurality of color products; b. receiving first color information from one or more color product development specialists, said first color information including at least a first color; c. identifying first development information in said database on the basis of said received first color information, said first development information including at least said first color; d. receiving data about at least one physical characteristic of said color product from the one or more color product development specialists; e. communicating said first development information using a global communication network between at least two color product development specialists; and f. determining, using said first development information, whether said at least one physical characteristic is compatible with said first color;
A method for modifying input image data to an image projection system for display in a theatre, the method comprising: (i) receiving (100, 200, 300, 800) an initial system characteristic of the image projection system; (ii) receiving (102, 202, 302, 802) a system parameter of a system characteristic; characterised in that the initial system characteristic is measured by a sensor at a target location that is a viewing location of a patron, and the system parameter is measured by a sensor at a remote location that is remote to the target location; wherein the method further comprises the following steps: (iii) computing (106, 206, 306, 806) an initial normalized system characteristic by normalizing the initial system characteristic measured at the target location with respect to the system parameter of the system characteristic measured at the remote location; (iv) updating the system parameter by receiving (108, 208, 308, 808) a subsequent system parameter measured at the remote location; (v) computing (110, 210, 310, 810) a subsequent system characteristic for the target location using the computed initial normalized system characteristic and the subsequent system parameter measured at the remote location; and (vi) modifying the input image data using the subsequent system characteristic to produce normalized input image data for system function processing by a system function module (650, 652) that outputs enhanced image data for display in the theatre. (i) receiving (100, 200, 300, 800) an initial system characteristic of the image projection system; (ii) receiving (102, 202, 302, 802) a system parameter of a system characteristic; (iii) computing (106, 206, 306, 806) an initial normalized system characteristic by normalizing the initial system characteristic measured at the target location with respect to the system parameter of the system characteristic measured at the remote location; (iv) updating the system parameter by receiving (108, 208, 308, 808) a subsequent system parameter measured at the remote location; (v) computing (110, 210, 310, 810) a subsequent system characteristic for the target location using the computed initial normalized system characteristic and the subsequent system parameter measured at the remote location; and (vi) modifying the input image data using the subsequent system characteristic to produce normalized input image data for system function processing by a system function module (650, 652) that outputs enhanced image data for display in the theatre.
A bed lying device such as an inflatable mattress, comprising an hermetic jacket and a compressor provided with a pressurized-air supplying channel connected to said jacket, wherein it comprises gyroscopic means integrated within said mattress at the level of its upper portion, said gyroscopic means being connected to electronic means for regulating the pressure said compressor is provided with.
Method for demoulding a casting, cast from a light metal melt, from a casting mould which comprises at least one casting core (2-7, 17, 18a-21b, 30) which images a passage opening (Z1 - Z3) in the casting connecting two outer sides of the casting and is produced from a moulding material which is bound by means of a binder which decomposes under the influence of temperature, wherein the casting mould undergoes a heat treatment in a furnace for the demoulding, during which it is heated to a temperature at which the binder loses its binding effect, characterised in that, in the furnace, a passage (D1-D4), which is formed in the casting core (18a-21b) of the casting mould imaging the passage opening, is flowed through by hot gas, the temperature of which corresponds at least to the temperature at which the binder of the moulding material loses it binding effect such that the casting core (18a-21b) imaging the passage opening (Z1-Z3) decomposes into fragments or separate sand particles as a consequence of the influence of the hot gas.
Device for storing battery cells of a motor vehicle, comprising a box having walls impermeable to water and to air and defining a volume for storing cells, means for cooling the storage volume, the cooling means comprising a plurality of aeration elements each having a passage through a wall of the box and a membrane blocking the passage, the membrane being configured to allow the outlet of air from the box to outside the box and to prevent the intake of water into the box, and a fan, characterised by the fact that the fan is housed in a reservation that the box comprises and that defines a volume adjacent to the storage volume and opening into the storage volume, and in this the plurality of aeration elements is positioned on at least two different walls of the reservation, the aeration elements producing an at least partial evacuation of the flow of air generated by the fan.
A prosthesis for total ankle arthroplasty, comprising: a talar implant; a tibial implant; and a bearing component disposed between the tibial implant and talar implant and configured to slide relative to the talar implant to facilitate motion of the prosthesis, wherein: the bearing component and the talar implant have corresponding sliding surfaces (222, 431), the corresponding sliding surfaces defining concentric cylindrical surfaces and an axis of rotation, the axis of rotation defining a first direction; the concentric cylindrical surface of the bearing component have a ridge configured to slide in a corresponding groove in the concentric cylindrical surface of the talar implant; the alignment of the bearing component and the talar implant, along the axis of rotation, is only due to the interaction of the ridge and the groove; and the bearing component and the tibial implant have corresponding flat sliding surfaces (623,432); and the bearing component is configured to slide relative to the tibial implant in multiple directions including the first direction, characterised in that a cross-section of the ridge defines a radius of between 3 and 3.5 mm. a talar implant; a tibial implant; and a bearing component disposed between the tibial implant and talar implant and configured to slide relative to the talar implant to facilitate motion of the prosthesis, the bearing component and the talar implant have corresponding sliding surfaces (222, 431), the corresponding sliding surfaces defining concentric cylindrical surfaces and an axis of rotation, the axis of rotation defining a first direction; the concentric cylindrical surface of the bearing component have a ridge configured to slide in a corresponding groove in the concentric cylindrical surface of the talar implant; the alignment of the bearing component and the talar implant, along the axis of rotation, is only due to the interaction of the ridge and the groove; and the bearing component and the tibial implant have corresponding flat sliding surfaces (623,432); and the bearing component is configured to slide relative to the tibial implant in multiple directions including the first direction, characterised in that a cross-section of the ridge defines a radius of between 3 and 3.5 mm.
Rail vehicle having a water supply system comprising a water consumption unit, wherein the water consumption unit is a hand washbasin and wherein the hand washbasin is connected in a water-directing manner to a wastewater tank via a wastewater line, and wherein the water supply system comprises a WC system that is connected in a water-directing manner to the wastewater tank via a wastewater line, wherein the water supply system comprises a water container that is replaceably attached to a water line, wherein the water line connects the water container to the water consumption unit in a manner that directs water for supplying the water consumption unit, and wherein the water supply system comprises a wastewater treatment system that is connected in a water-directing manner to the wastewater tank for treating the wastewater and to the WC system for supplying treated wastewater to the WC system.
A method for wireless communication, comprising: determining (1305, 1405, 1505, 1605), at a first user equipment, UE, that a downlink transmission from a first transmission reception point, TRP, of a group of TRPs in a coordinated cluster is unsuccessfully received; identifying (1310, 1410, 1510, 1610), at the first UE, a set of non-orthogonal multiple access, NOMA, uplink resources for uplink transmissions to at least a second TRP of the group of TRPs, the set of NOMA uplink resources being for transmitting negative acknowledgment, NACK, feedback to indicate unsuccessful receipt of the downlink transmission from the first TRP; and transmitting (1315, 1420, 1530, 1630), based at least in part on the identifying, the NACK feedback to at least the second TRP using the set of NOMA uplink resources; wherein the NOMA uplink resources are common resources that are shared by a plurality of UEs that may concurrently transmit NACK feedback using the common resources; and wherein the identifying further comprises identifying a second set of dedicated resources for uplink transmissions to the second TRP, the second set of dedicated resources being allocated to the first UE for transmitting critical NACK feedback to the second TRP. determining (1305, 1405, 1505, 1605), at a first user equipment, UE, that a downlink transmission from a first transmission reception point, TRP, of a group of TRPs in a coordinated cluster is unsuccessfully received; identifying (1310, 1410, 1510, 1610), at the first UE, a set of non-orthogonal multiple access, NOMA, uplink resources for uplink transmissions to at least a second TRP of the group of TRPs, the set of NOMA uplink resources being for transmitting negative acknowledgment, NACK, feedback to indicate unsuccessful receipt of the downlink transmission from the first TRP; and transmitting (1315, 1420, 1530, 1630), based at least in part on the identifying, the NACK feedback to at least the second TRP using the set of NOMA uplink resources; wherein the NOMA uplink resources are common resources that are shared by a plurality of UEs that may concurrently transmit NACK feedback using the common resources; and wherein the identifying further comprises identifying a second set of dedicated resources for uplink transmissions to the second TRP, the second set of dedicated resources being allocated to the first UE for transmitting critical NACK feedback to the second TRP.
A rotor comprising a magnet, a magnet retaining element located, at least in part, radially outward of the magnet relative to a rotor axis, and a rotor shaft, wherein the rotor shaft and the magnet retaining element are of fibre reinforced composite material and are formed integrally with one another, characterised in that the orientation of the fibres of the magnet retaining element differs from the orientation of the fibres of the rotor shaft.
A power converter (162, 262, 302, 400, 420) for use in a doubly fed induction generator wind turbine system having a rotor and a stator, the stator configured to be coupled to an electrical grid, the stator configured to provide a medium voltage alternating current power on a stator bus of the wind turbine system, the power converter (162, 262, 302, 400, 420) comprising: a plurality of conversion modules, each conversion module comprising a plurality of bridge circuits (218, 220), each bridge circuit (218, 220) comprising a plurality of switching devices (222, 224) coupled in series, characterized in that each conversion module comprises one or more isolation transformers coupled to one or more bridge circuits (218, 220), and wherein at least one conversion module comprises a multi-winding isolation transformer (402, 424) having a single winding on a low voltage side and a plurality of windings on a medium voltage side of the multi-winding isolation transformer; wherein the power converter (162, 262, 302, 400, 420) is configured to convert a low voltage alternating current power provided by the rotor to a medium voltage multiphase alternating current output power suitable for provision to the electrical grid, and wherein each conversion module is configured to provide a single phase of the medium voltage multiphase alternating current output power on a line bus of the wind turbine system. a plurality of conversion modules, each conversion module comprising a plurality of bridge circuits (218, 220), each bridge circuit (218, 220) comprising a plurality of switching devices (222, 224) coupled in series, characterized in that each conversion module comprises one or more isolation transformers coupled to one or more bridge circuits (218, 220), and wherein at least one conversion module comprises a multi-winding isolation transformer (402, 424) having a single winding on a low voltage side and a plurality of windings on a medium voltage side of the multi-winding isolation transformer; wherein the power converter (162, 262, 302, 400, 420) is configured to convert a low voltage alternating current power provided by the rotor to a medium voltage multiphase alternating current output power suitable for provision to the electrical grid, and wherein each conversion module is configured to provide a single phase of the medium voltage multiphase alternating current output power on a line bus of the wind turbine system.
Inspection method for closure control of containers, in particular bottles, where the closed containers are transported by a transport apparatus and inspected (102 - 108) by an inspection device in terms of tightness and/or correct seating of closures applied to the containers, wherein the inspection device at least in part captures a respective container together with its closure in an optical 3D measuring method and generates 3D data therefrom, in particular 3D points, 3D line elements and/or 3D area elements, characterised in that the 3D data of the closure and the 3D data of the container are separated from one another when processed by the evaluation device, and that the 3D data is processed (104 - 107) with an evaluation device and a conclusion about the tightness and/or the correct seating of the closure is drawn therefrom. wherein the inspection device at least in part captures a respective container together with its closure in an optical 3D measuring method and generates 3D data therefrom, in particular 3D points, 3D line elements and/or 3D area elements, characterised in that the 3D data of the closure and the 3D data of the container are separated from one another when processed by the evaluation device, and that the 3D data is processed (104 - 107) with an evaluation device and a conclusion about the tightness and/or the correct seating of the closure is drawn therefrom.