mhurhangee/ep-ind-claims huggingface dataset:
Method for operating a cooking hob for maintaining a state, which exists at the time of activation of the maintaining operation, at a cooking point of the cooking hob with a cooking vessel on it, comprising the steps of: - a cooking vessel being placed onto a cooking point of the hob and being heated by the cooking point or an inductive heating device of the cooking point according to requirements, - detecting a change in temperature of the cooking vessel as a change in state, - detecting the heating process of the cooking vessel and evaluating of the supplied power and/or a temperature of the cooking vessel and/or the profile thereof with respect to time, - activating the maintaining operation by an operator for maintaining the state, which is existing at this time, at the cooking point with the cooking vessel placed on it, characterized by the further steps of: - differentiating the state at the cooking point existing at this time firstly into a process at the boiling point of water and secondly into a process which is different therefrom or into a process which takes place at a different temperature without a phase transition of water, - wherein, in the case of a decision for of a process at the boiling point of water, the power supply at this time is then kept largely constant or a customary power supply for continued boiling is set, - wherein, in the case of a decision for of a process not at the boiling point of water, the process is regulated at a constant temperature of the cooking vessel by adapting the power supply. - a cooking vessel being placed onto a cooking point of the hob and being heated by the cooking point or an inductive heating device of the cooking point according to requirements, - detecting a change in temperature of the cooking vessel as a change in state, - detecting the heating process of the cooking vessel and evaluating of the supplied power and/or a temperature of the cooking vessel and/or the profile thereof with respect to time, - activating the maintaining operation by an operator for maintaining the state, which is existing at this time, at the cooking point with the cooking vessel placed on it, - differentiating the state at the cooking point existing at this time firstly into a process at the boiling point of water and secondly into a process which is different therefrom or into a process which takes place at a different temperature without a phase transition of water, - wherein, in the case of a decision for of a process at the boiling point of water, the power supply at this time is then kept largely constant or a customary power supply for continued boiling is set, - wherein, in the case of a decision for of a process not at the boiling point of water, the process is regulated at a constant temperature of the cooking vessel by adapting the power supply.
A method of manufacturing an ocular prosthesis comprising a posterior sclera portion and an anterior clear portion, the method comprising: providing an impression of an eye socket or an existing ocular prosthesis; scanning the impression or the existing ocular prosthesis; fabricating the posterior scleral portion and the anterior clear portion based on scans produced by the scanning of the impression or the existing ocular prosthesis; modifying the anterior clear portion by creating an offset from the original shape of the exterior surfaces, and reducing the anterior section of the offset piece at the apex of its surface to create a circular iris table, configured to become a surface level of a composite multi-layer photographic iris piece, the said multi-layer photographic iris piece comprising a dark almost black pupil layer printed on photographic paper, a base iris color layer printed on photographic paper and several lighter layers of color printed on clear transparency film; modifying the posterior scleral portion to create a circular depression centered upon the circular iris table and the central axis of said iris piece, said iris piece matching a patient iris color and diameter; placing the composite multi-layer photographic iris piece into the circular depression using light cure adhesive; and forming the ocular prosthesis by joining the fabricated posterior sclera portion to the anterior clear portion. providing an impression of an eye socket or an existing ocular prosthesis; scanning the impression or the existing ocular prosthesis; fabricating the posterior scleral portion and the anterior clear portion based on scans produced by the scanning of the impression or the existing ocular prosthesis; modifying the anterior clear portion by creating an offset from the original shape of the exterior surfaces, and reducing the anterior section of the offset piece at the apex of its surface to create a circular iris table, configured to become a surface level of a composite multi-layer photographic iris piece, the said multi-layer photographic iris piece comprising a dark almost black pupil layer printed on photographic paper, a base iris color layer printed on photographic paper and several lighter layers of color printed on clear transparency film; modifying the posterior scleral portion to create a circular depression centered upon the circular iris table and the central axis of said iris piece, said iris piece matching a patient iris color and diameter; placing the composite multi-layer photographic iris piece into the circular depression using light cure adhesive; and forming the ocular prosthesis by joining the fabricated posterior sclera portion to the anterior clear portion.
A process for the preparation of polyurea microcapsules comprising the following steps: a) dissolving at least one aromatic polyisocyanate having at least two isocyanate groups in a perfume-containing oil to form an oil phase; b) dispersing the oil phase obtained in step a) into an aqueous solution comprising emulsifier to form an oil-in-water emulsion; c) adding to the oil-in-water emulsion obtained in step b) a mixture of two polyamines in a respective molar ratio comprised between 95:5 to 5:95, to form a microcapsule slurry; d) optionally drying the slurry. a) dissolving at least one aromatic polyisocyanate having at least two isocyanate groups in a perfume-containing oil to form an oil phase; b) dispersing the oil phase obtained in step a) into an aqueous solution comprising emulsifier to form an oil-in-water emulsion; c) adding to the oil-in-water emulsion obtained in step b) a mixture of two polyamines in a respective molar ratio comprised between 95:5 to 5:95, to form a microcapsule slurry; d) optionally drying the slurry.
Transport container (1, 2) for road or ship transport, comprising four side walls forming a box section, wherein two adjacent side walls together each form an L-shaped wall unit (4, 5) and the two L-shaped wall units (4, 5) are either removably connected to each other at two connection points or are removably connected to each other at one connection point and rotatably connected at another connection point, characterized in that the L-shaped wall units (4a, 5a) of the transport container are formed in such a way that said units can be removably and/or pivotally connected to the L-shaped wall units (4b, 5b) of a second transport container, so that the four L-shaped wall units (4a, 4b, 5a, 5b) of the two transport containers (1, 2) can be assembled into a box-shaped large capacity container.
Method for calibrating a radar system that has a reception unit having a plurality of antenna elements (111, 112, 113), wherein the method has the following steps: receiving a first complex signal on a first channel and converting the received first complex signal into a first complex information transmission signal; receiving a second complex signal on a second channel and converting the received second complex signal into a second complex information transmission signal; ascertaining a complex amplitude monopulse signal as the ratio of the first complex information transmission signal and the second complex information transmission signal; ascertaining a phase offset between the first complex information transmission signal and the second complex information transmission signal based on a real part and an imaginary part of the ratio of the first complex information transmission signal and the second complex information transmission signal; using the ascertained phase offset in order to equalize a relative phase shift between the first complex information transmission signal of the first channel and the second complex information transmission signal of the second channel; wherein the first complex signal is formed as a summed signal for at least two antenna elements (111, 112, 113) of the reception unit of the radar system; and wherein the second complex signal is formed as a difference signal for at least two antenna elements (111, 112, 113) of the reception unit of the radar system. receiving a first complex signal on a first channel and converting the received first complex signal into a first complex information transmission signal; receiving a second complex signal on a second channel and converting the received second complex signal into a second complex information transmission signal; ascertaining a complex amplitude monopulse signal as the ratio of the first complex information transmission signal and the second complex information transmission signal; ascertaining a phase offset between the first complex information transmission signal and the second complex information transmission signal based on a real part and an imaginary part of the ratio of the first complex information transmission signal and the second complex information transmission signal; using the ascertained phase offset in order to equalize a relative phase shift between the first complex information transmission signal of the first channel and the second complex information transmission signal of the second channel; wherein the first complex signal is formed as a summed signal for at least two antenna elements (111, 112, 113) of the reception unit of the radar system; and wherein the second complex signal is formed as a difference signal for at least two antenna elements (111, 112, 113) of the reception unit of the radar system.
An installation for producing a medical preparation, by way of which liquids from a plurality of source containers can be transferred into a target container, wherein the installation comprises at least one pump and a receptacle for a removable valve block having a multiplicity of valves, characterized in that an inflow from the source containers can be controlled by the valves, wherein the valves comprise activation members (14a- 14f), in particular plugs (14a-14f), wherein the installation has drivers, by way of which the valves can be activated, and wherein the drivers are disposed so as to be mutually offset in at least two rows (a, b).
A receiver assembly (1, 101, 201, 401, 501, 601, 701, 801) comprising a receiver (2, 102, 202, 402, 502, 602, 702, 802) and an assembly housing (3, 103, 203, 403, 503, 603, 703, 803); the receiver (2, 102, 202, 402, 502, 602, 702, 802) comprising a sound outlet (5, 105, 105', 205, 405, 505, 605, 705, 805) configured to outlet sound from the receiver and being arranged at least partly within the assembly housing (3, 103, 203, 403, 503, 603, 703, 803), the assembly housing (3, 103, 203, 403, 503, 603, 703, 803) comprising an assembly sound outlet (6, 106, 106', 206, 406, 506, 606, 706, 806), wherein the sound outlet (5, 105, 105', 205, 405, 505, 605, 705, 805) is arranged in communication with the assembly sound outlet (6, 106, 106', 206, 406, 506, 606, 706, 806) for outlet of sound from the receiver (2, 102, 202, 402, 502, 602, 702, 802) via the assembly sound outlet (6, 106, 106', 206, 406, 506, 606, 706, 806), and wherein a vibration dampening element (7, 107, 207, 307, 407, 507, 607, 707, 807) connects the sound outlet (5, 105, 105', 205, 405, 505, 605, 705, 805) and the assembly sound outlet (6, 106, 106', 206, 406, 506, 606, 706, 806), characterised in that the vibration dampening element (7, 107, 207, 307, 407, 507, 607, 707, 807) forms a first attachment plane in which it is attached to the receiver (2, 102, 202, 402, 502, 602, 702, 802) and forms a second attachment plane in which it is attached to the assembly housing (3, 103, 203, 403, 503, 603, 703, 803), and wherein the first and second attachment planes (211, 212) are off-set relative to each other and are parallel, and in that the vibration dampening element (7, 107, 207, 307, 407, 507, 607, 707, 807) has an arc-shaped cross-section in a plane being perpendicular to the attachment planes and is formed by an elastic foil and is compliant to reduce vibrations from the receiver (2, 102, 202, 402, 502, 602, 702, 802) to the assembly housing (3, 103, 203, 403, 503, 603, 703, 803).
A dry granulation process for preparing a direct compressible dextrose composition, comprising: providing a starting dextrose composition in powder form having a moisture content of at least 2%, wherein the starting dextrose composition comprises 50 to 100% by weight α dextrose monohydrate; compacting the starting dextrose composition by roller compaction using compacting rolls to form flakes or by slugging using a tablet press of single-punch or rotary type to form slugs; crushing the flakes or the slugs to form granules; and screening the granules to obtain a direct compressible dextrose composition in the form of granules using a terminal screen with a mesh size of 0.1 to 1.8 mm. providing a starting dextrose composition in powder form having a moisture content of at least 2%, wherein the starting dextrose composition comprises 50 to 100% by weight α dextrose monohydrate; compacting the starting dextrose composition by roller compaction using compacting rolls to form flakes or by slugging using a tablet press of single-punch or rotary type to form slugs; crushing the flakes or the slugs to form granules; and screening the granules to obtain a direct compressible dextrose composition in the form of granules using a terminal screen with a mesh size of 0.1 to 1.8 mm.
A Network Assisted Interference Cancellation and Suppression, NAICS, method at an apparatus in a base station, characterized in that, the method comprises: receiving NAICS capability information reported by a User Equipment, UE; issuing NAICS assisted signalling to the UE according to the NAICS capability information and interference information of a neighbouring base station, wherein the NAICS capability information comprises at least supporting blind detection of two Common Reference Signal, CRS, ports. receiving NAICS capability information reported by a User Equipment, UE; issuing NAICS assisted signalling to the UE according to the NAICS capability information and interference information of a neighbouring base station, wherein the NAICS capability information comprises at least supporting blind detection of two Common Reference Signal, CRS, ports.
A method for manufacturing a turbine rotor blade for use in a turbine in which turbine a plurality of the rotor blades are fixedly arranged along the peripheral direction of a rotor on the outer periphery of the rotor rotatably supported in a turbine, the method comprising: a forging step of providing an excess thickness section (31, 31A, 32, 33, 34, 34A) on a blade section of the rotor blade, perpendicular to the blade length direction thereby molding a forging material, in which an excess thickness amount (W1, W1a) which is the thickness of the excess thickness section (31, 31A, 32, 33, 34, 34A) gradually increases from a prescribed position of the blade section in a blade length direction toward a blade tip side, by die forging; and a machining step of cutting the excess thickness section (31, 31A, 32, 33, 34, 34A) from the forging and forming the blade section. a forging step of providing an excess thickness section (31, 31A, 32, 33, 34, 34A) on a blade section of the rotor blade, perpendicular to the blade length direction thereby molding a forging material, in which an excess thickness amount (W1, W1a) which is the thickness of the excess thickness section (31, 31A, 32, 33, 34, 34A) gradually increases from a prescribed position of the blade section in a blade length direction toward a blade tip side, by die forging; and a machining step of cutting the excess thickness section (31, 31A, 32, 33, 34, 34A) from the forging and forming the blade section.
An integrated circuit comprising: a processor system configured to execute program code; and a process-specific circuit implemented within a programmable circuitry of the integrated circuit, wherein the process-specific circuit is coupled to the processor system and is configured to perform a process that is offloaded by the processor system, wherein the processor system is configured to offload the process to the process-specific circuit in lieu of executing program code to perform the process, according to a determination made dynamically during operation of the integrated circuit in the field; wherein the processor system is configured to store first source data at a virtual memory address, translate the virtual memory address into a physical memory address usable by the process-specific circuit, and store a first descriptor in a memory accessible by the process-specific circuit where the first descriptor specifies the physical memory address for the source data; and wherein the process-specific circuit is configured to access a predetermined memory location of the memory where the first descriptor is stored and operates upon the first source data located using the physical memory address read from the first descriptor. a processor system configured to execute program code; and a process-specific circuit implemented within a programmable circuitry of the integrated circuit, wherein the process-specific circuit is coupled to the processor system and is configured to perform a process that is offloaded by the processor system, wherein the processor system is configured to offload the process to the process-specific circuit in lieu of executing program code to perform the process, according to a determination made dynamically during operation of the integrated circuit in the field; wherein the processor system is configured to store first source data at a virtual memory address, translate the virtual memory address into a physical memory address usable by the process-specific circuit, and store a first descriptor in a memory accessible by the process-specific circuit where the first descriptor specifies the physical memory address for the source data; and wherein the process-specific circuit is configured to access a predetermined memory location of the memory where the first descriptor is stored and operates upon the first source data located using the physical memory address read from the first descriptor.
A multilayer structure, comprising: a crystal sapphire substrate; and a crystalline film comprising α-Ga 2 O 3 as a major component, formed directly on the crystal substrate by epitaxy, characterized in that the crystalline film has an off-angle from 0.2° to 12.0°, and the sapphire substrate has an off-angle from 0.2° to 12.0°. a crystal sapphire substrate; and a crystalline film comprising α-Ga 2 O 3 as a major component, formed directly on the crystal substrate by epitaxy, characterized in that the crystalline film has an off-angle from 0.2° to 12.0°, and the sapphire substrate has an off-angle from 0.2° to 12.0°.
An image forming apparatus comprising: plurality of rotatable image carriers, each incorporated in a respective image producing unit (10Y,10C,10M,10K); an intermediate transfer unit comprising an intermediate transfer body which is installed stretched over a plurality of roller members (32,33,34) and to which transfer toner images formed on each image carrier are transferred; an opening and closing face plate and positioning mechanisms, said positioning mechanisms being configured for positioning the shafts of each of said image carriers and the shaft of one of said rollers stretching the intermediate transfer body; characterized in that said opening and closing face plate comprises a positioning plate, a slide plate movably provided on said positioning plate, lock levers (102A,102B) are mounted on respective shafts of cams provided on said opening and closing face plate and being configured to rotationally operate the cams, wherein the cams of the lock levers (102A,102B) are engaged with said slide plate, wherein each position mechanism is configured to move in response to the movement of the slide plate and each positioning mechanism comprises a bearing member (111;211;311) provided at a positioning plate, an arm member for applying pressure received from a torsion coil spring provided in the image forming apparatus to the shaft of each rotatable image carrier and the shaft of said roller member toward the respective shaft center. plurality of rotatable image carriers, each incorporated in a respective image producing unit (10Y,10C,10M,10K); an intermediate transfer unit comprising an intermediate transfer body which is installed stretched over a plurality of roller members (32,33,34) and to which transfer toner images formed on each image carrier are transferred; an opening and closing face plate and positioning mechanisms, said positioning mechanisms being configured for positioning the shafts of each of said image carriers and the shaft of one of said rollers stretching the intermediate transfer body;
An aerosol-generating device comprising, a main body comprising a primary coil and a power supply; and a mouthpiece comprising a secondary coil, a resistive heating element, and a heating chamber for receiving a solid aerosol-forming substrate, wherein the resistive heating element is arranged at least partly around the heating chamber; wherein the mouthpiece is detachably connectable to the main body; and wherein the device is configured such that the primary coil and the secondary coil are inductively coupled when the mouthpiece is connected to the main body. a main body comprising a primary coil and a power supply; and a mouthpiece comprising a secondary coil, a resistive heating element, and a heating chamber for receiving a solid aerosol-forming substrate, a secondary coil, a resistive heating element, and a heating chamber for receiving a solid aerosol-forming substrate, wherein the resistive heating element is arranged at least partly around the heating chamber; wherein the mouthpiece is detachably connectable to the main body; and wherein the device is configured such that the primary coil and the secondary coil are inductively coupled when the mouthpiece is connected to the main body.
A chromatographic separation device comprising a first substrate body carrying a micro-fabricated separation channel recessed on one of its surfaces and covered by a second substrate body, both perforated with the necessary connection-holes for the supply and withdrawal of a sample and mobile phase liquid, wherein said micro-fabricated separation channel is preceded or succeeded by a flow distribution region that is filled with an array of micro-fabricated pillars, characterized by said pillars having a shape, size and positioning pattern selected such that said flow distribution region has a ratio of transversal to axial permeability of at least 2, whereby the incoming liquid is spread in the transversal direction across the channel cross-section.