mhurhangee/ep-ind-claims huggingface dataset:
An industrial gas turbine engine for the production of electric power, comprising: a compressor to supply compressed air to a combustor; a turbine rotatably connected to the compressor, the turbine positioned to receive a hot gas stream produced in the combustor; a first stage row of stator vanes within the turbine, the first stage row of stator vanes being formed from a base metal; a cooling fluid passage formed within the first stage row of stator vanes, a liquid metal coolant passing through the cooling fluid passage of the first stage row of stator vanes to provide cooling to the first stage row of stator vanes, characterized in that the liquid metal coolant is reactive to the base metal of the first stage row of stator vanes; and in that the engine further comprises a liner within the cooling fluid passage of the first stage row of stator vanes to prevent the metal coolant from reacting to the base metal of the first stage row of stator vanes, the liner being formed from a material that does not react with the base metal of the first stage row of stator vanes and the liquid metal coolant. a compressor to supply compressed air to a combustor; a turbine rotatably connected to the compressor, the turbine positioned to receive a hot gas stream produced in the combustor; a first stage row of stator vanes within the turbine, the first stage row of stator vanes being formed from a base metal; a cooling fluid passage formed within the first stage row of stator vanes, a liquid metal coolant passing through the cooling fluid passage of the first stage row of stator vanes to provide cooling to the first stage row of stator vanes, characterized in that the liquid metal coolant is reactive to the base metal of the first stage row of stator vanes; and in that the engine further comprises a liner within the cooling fluid passage of the first stage row of stator vanes to prevent the metal coolant from reacting to the base metal of the first stage row of stator vanes, the liner being formed from a material that does not react with the base metal of the first stage row of stator vanes and the liquid metal coolant.
A surrounding vehicle display method that is used in a vehicle with a function of auto lane change to perform lane change control regardless of intension of a driver, comprising: obtaining information on surroundings of a host vehicle; using the obtained information on the surroundings of the host vehicle to generate and display a virtual image that indicates the surroundings of the host vehicle as being viewed from above the host vehicle; starting examination of a possibility that the auto lane change may be needed; determining whether to perform the auto lane change after a lapse of a predetermined time from the start of the examination of a possibility that the auto lane change may be needed; and after the start of the examination of a possibility that the auto lane change may be needed and before the determination of whether to perform the auto lane change, making a display region of the surroundings of the host vehicle on the virtual image wider than a display region before the examination is started. obtaining information on surroundings of a host vehicle; using the obtained information on the surroundings of the host vehicle to generate and display a virtual image that indicates the surroundings of the host vehicle as being viewed from above the host vehicle; starting examination of a possibility that the auto lane change may be needed; determining whether to perform the auto lane change after a lapse of a predetermined time from the start of the examination of a possibility that the auto lane change may be needed; and after the start of the examination of a possibility that the auto lane change may be needed and before the determination of whether to perform the auto lane change, making a display region of the surroundings of the host vehicle on the virtual image wider than a display region before the examination is started.
Surface-finished steel sheet, preferably cold-rolled thin steel sheet, having a metallic corrosion-resistant layer which defines a surface of the surface-finished steel sheet and contains, inter alia, aluminium and iron, wherein the aluminium content of the corrosion-resistant layer is more than 40 wt%, preferably more than 45 wt%, particularly preferably more than 50 wt%, wherein the metallic corrosion-resistant layer additionally contains nickel, and wherein nickel-containing phases are formed at the transition of the corrosion-resistant layer to the base material of the steel sheet, characterised in that the nickel content of the corrosion-resistant layer is in the range from 10 to 30 wt%, and that the metallic corrosion-resistant layer has a thickness in the range from 8 to 15 μm.
Composite material with a matrix of fused silica in which regions of silicon-containing phase have been embedded, characterized in that the composite material is impervious to gas, has a closed porosity of less than 0.5% and a specific density of at least 2.19 g/cm 3, and at a temperature of 1000°C has a spectral emissivity of at least 0.7 for wavelengths between 2 and 8 μm.
A method of preparing a winding for an n-phase electric synchronous motor, or the like, having an air gap for accommodating the winding of n phases, said method comprising: (a) simultaneously winding a 2n-plurality of insulated electric conductors (L1-L6) to obtain a 2n- plurality of individual windings (W1-W6), each conductor being wound a predetermined number of times to form one individual winding and said conductors being wound in the same direction, wherein the width of each of the individual windings is chosen so that the total width of the 2n- plurality of individual windings corresponds to a pair of poles of the motor; (b) moving each conductor across the adjacent individual windings obtained in step (a) into position for the forming of an additional winding of the same conductor, thereby creating axially shifted conductor ends; (c) repeating steps (a) and (b) a predetermined number of times to form a total number of individual windings equal to n times the number of poles in the motor; (d) interconnecting pairs L(y) and L(y+n) of said conductors at one end of the overall winding, where y is an integer varying from 1 to n, to form n interconnected winding pairs, each winding pair being adapted for connection to one phase of the motor, wherein individual wires of said winding pairs are configured to conduct current in opposite direction; and flattening the overall winding by displacing first and second parts of each individual winding such that parts adapted to conduct current in the same direction are placed adjacent to each other. (a) simultaneously winding a 2n-plurality of insulated electric conductors (L1-L6) to obtain a 2n- plurality of individual windings (W1-W6), each conductor being wound a predetermined number of times to form one individual winding and said conductors being wound in the same direction, wherein the width of each of the individual windings is chosen so that the total width of the 2n- plurality of individual windings corresponds to a pair of poles of the motor; (b) moving each conductor across the adjacent individual windings obtained in step (a) into position for the forming of an additional winding of the same conductor, thereby creating axially shifted conductor ends; (c) repeating steps (a) and (b) a predetermined number of times to form a total number of individual windings equal to n times the number of poles in the motor; (d) interconnecting pairs L(y) and L(y+n) of said conductors at one end of the overall winding, where y is an integer varying from 1 to n, to form n interconnected winding pairs, each winding pair being adapted for connection to one phase of the motor, wherein individual wires of said winding pairs are configured to conduct current in opposite direction; and
Washer-dryer comprising a tub and a drum rotatably mounted inside the tub, a process air circuit, adapted to circulate process air through the drum for drying laundry, comprising a fan and a heater, a cooling water circuit (11,28) in contact with the process air circuit, a pump, a condenser, a control unit, two cooling means (16,18), namely an air/water heat exchanger wherein the cooling air is provided by a cooling air fan and a tap water supply which are in heat exchanging contact with the cooling water circuit (11,28), and a first temperature sensor in the cooling water circuit (11,28) for measuring the temperature T W of the cooling water, wherein a maximum threshold value T W,max for the cooling water in the cooling water circuit (11,28) is stored in the control unit and wherein the control unit is adapted to operate the pump and/or the two cooling means (16, 18) until the temperature T W of the cooling water falls below T W,max, and wherein the cooling water circuit (11,28) further comprises a water supply valve which can connect the cooling water circuit (11,28) and the tap water supply and which is controlled by the control unit, and wherein the washer-dryer comprises a washing liquor recirculation system and the pump is connected to both the cooling water circuit and the washing liquor recirculation system such that the pump can be operated by the control unit to circulate an aqueous liquid either in the cooling water circuit or in the washing liquor recirculation system, characterized in that the cooling water circuit (11,28) comprises a tank.
A method comprising: identifying by a segment bundling device, a virtual network segment as being supported by a segment bundling device, said segment bundling device being a traffic forwarding device, the virtual network segment supporting a first host connected to a first bridging device and a second host connected to a second bridging device within a network; receiving, using the segment bundling device, virtual network address information describing the virtual network segmentation identifier for the segment, said virtual network address information being used to receive virtual network traffic for the first and second host, wherein the virtual network segmentation ID comprises an upper ID and a lower ID; generating, using the segment bundling device, a segment bundling table associating a bundle ID with the virtual network segmentation identifier based on the upper ID and the lower ID of the virtual network segmentation ID; and distributing, using the segment bundling device, the segment bundling table to traffic forwarding devices in the network that interface with the first bridging device and the second bridging device. identifying by a segment bundling device, a virtual network segment as being supported by a segment bundling device, said segment bundling device being a traffic forwarding device, the virtual network segment supporting a first host connected to a first bridging device and a second host connected to a second bridging device within a network; receiving, using the segment bundling device, virtual network address information describing the virtual network segmentation identifier for the segment, said virtual network address information being used to receive virtual network traffic for the first and second host, wherein the virtual network segmentation ID comprises an upper ID and a lower ID; generating, using the segment bundling device, a segment bundling table associating a bundle ID with the virtual network segmentation identifier based on the upper ID and the lower ID of the virtual network segmentation ID; and distributing, using the segment bundling device, the segment bundling table to traffic forwarding devices in the network that interface with the first bridging device and the second bridging device.
An integrated verification and manufacturability tool comprising: a hierarchical database arranged to represent at least a portion of an imported integrated device layout in a hierarchical manner; characterized by comprising: means for determining a number of intermediate layers based on an analysis of a job description, the job description indicating verification procedures to be performed, and means for creating and adding to the imported integrated device layout the determined number of intermediate layers, to be stored in the hierarchical database, the intermediate layers being for holding computation results; a checking component (440; 450) configured to operate on the integrated device layout by accessing said database, after the intermediate layers have been added, and to store results data in one or more of the intermediate layers of the hierarchical database; and an optical process correction component configured to operate on the integrated device layout by accessing said database, after the intermediate layers have been added, and to store results data in one or more of the intermediate layers of the hierarchical database. a hierarchical database arranged to represent at least a portion of an imported integrated device layout in a hierarchical manner; characterized by comprising: means for determining a number of intermediate layers based on an analysis of a job description, the job description indicating verification procedures to be performed, and means for creating and adding to the imported integrated device layout the determined number of intermediate layers, to be stored in the hierarchical database, the intermediate layers being for holding computation results; a checking component (440; 450) configured to operate on the integrated device layout by accessing said database, after the intermediate layers have been added, and to store results data in one or more of the intermediate layers of the hierarchical database; and an optical process correction component configured to operate on the integrated device layout by accessing said database, after the intermediate layers have been added, and to store results data in one or more of the intermediate layers of the hierarchical database. means for determining a number of intermediate layers based on an analysis of a job description, the job description indicating verification procedures to be performed, and means for creating and adding to the imported integrated device layout the determined number of intermediate layers, to be stored in the hierarchical database, the intermediate layers being for holding computation results; a checking component (440; 450) configured to operate on the integrated device layout by accessing said database, after the intermediate layers have been added, and to store results data in one or more of the intermediate layers of the hierarchical database; and an optical process correction component configured to operate on the integrated device layout by accessing said database, after the intermediate layers have been added, and to store results data in one or more of the intermediate layers of the hierarchical database.
A method of preparing an antibody therapeutic comprising: a. providing a dissociated cell sample from at least one solid tumor sample obtained from a patient; b. loading the dissociated cell sample into a microfluidic device having a DEP configuration, at least one flow region and at least one isolation region fluidically connected to the flow region; c. moving at least one B cell from the dissociated cell sample into at least one isolation region in the microfluidic device using DEP forces, thereby obtaining at least one isolated B cell; and d. identifying at least one isolated B cell that produces antibodies capable of binding to a cancer cell-associated antigen; e. performing antibody sequencing on the at least one identified B cell or some or all of a clonal population of B cells derived therefrom; and f. generating an antibody therapeutic comprising at least heavy chain and light chain CDR sequences from the antibody of the at least one identified B cell. a. providing a dissociated cell sample from at least one solid tumor sample obtained from a patient; b. loading the dissociated cell sample into a microfluidic device having a DEP configuration, at least one flow region and at least one isolation region fluidically connected to the flow region; c. moving at least one B cell from the dissociated cell sample into at least one isolation region in the microfluidic device using DEP forces, thereby obtaining at least one isolated B cell; and d. identifying at least one isolated B cell that produces antibodies capable of binding to a cancer cell-associated antigen; e. performing antibody sequencing on the at least one identified B cell or some or all of a clonal population of B cells derived therefrom; and f. generating an antibody therapeutic comprising at least heavy chain and light chain CDR sequences from the antibody of the at least one identified B cell.
A radiation detector comprising: - a radiation sensitive semiconductor element generating electron-hole pairs in response to an irradiation with X-ray or gamma radiation, - an anode electrode arranged on a first surface of the semiconductor element, said anode electrode being segmented into anode segments representing anode pixels, wherein anode gaps are arranged between said anode segments, - a cathode electrode arranged on a second surface of the semiconductor element opposite the first surface, said cathode electrode being segmented into first and second cathode segments (31, 32), which are arranged in a plane and in parallel to the second surface, wherein said first cathode segments are substantially arranged opposite said anode segments and said second cathode segments are substantially arranged opposite said anode gaps, and - a cathode terminal (41, 42) providing electrical connections to said first cathode segments and said second cathode segments for coupling different electrical potentials to said first and second cathode segments(31, 32). - a radiation sensitive semiconductor element generating electron-hole pairs in response to an irradiation with X-ray or gamma radiation, - an anode electrode arranged on a first surface of the semiconductor element, said anode electrode being segmented into anode segments representing anode pixels, wherein anode gaps are arranged between said anode segments, - a cathode electrode arranged on a second surface of the semiconductor element opposite the first surface, said cathode electrode being segmented into first and second cathode segments (31, 32), which are arranged in a plane and in parallel to the second surface, wherein said first cathode segments are substantially arranged opposite said anode segments and said second cathode segments are substantially arranged opposite said anode gaps, and - a cathode terminal (41, 42) providing electrical connections to said first cathode segments and said second cathode segments for coupling different electrical potentials to said first and second cathode segments(31, 32).
A method of operating a control system (120, 220) for an interconnection between a first device (106A, 206A) and a second device (106A, 206B), the interconnection formed using a plurality of fibers (104, 204), the method comprising: selecting a first fiber among the plurality of fibers, the first fiber for carrying transmission from the first device to the second device; and transmitting, to the first device, instructions directing configuration of a packet processing device connected, at the first device, to the first fiber, to select a mode that connects a first device transmit module to the first fiber the method further characterized by determining a desired ratio of transmission bandwidth to reception bandwidth; and selecting, in consideration of bandwidth capacities associated with available fibers of the plurality of fibers, further fibers of the plurality of fibers for transmission from the first device to the second device transmitting, to the second device, instructions directing configuration of a packet processing device connected, at the second device, to the first fiber, to select a mode that connects a second device receive module to the first fiber. selecting a first fiber among the plurality of fibers, the first fiber for carrying transmission from the first device to the second device; and transmitting, to the first device, instructions directing configuration of a packet processing device connected, at the first device, to the first fiber, to select a mode that connects a first device transmit module to the first fiber the method further characterized by determining a desired ratio of transmission bandwidth to reception bandwidth; and selecting, in consideration of bandwidth capacities associated with available fibers of the plurality of fibers, further fibers of the plurality of fibers for transmission from the first device to the second device transmitting, to the second device, instructions directing configuration of a packet processing device connected, at the second device, to the first fiber, to select a mode that connects a second device receive module to the first fiber.
A humanized antibody or an antigen-binding fragment thereof that immunospecifically recognizes RGD sequence, said antibody comprising: (i) a H-chain comprising the VH amino acid sequence of SEQ ID NO: 24; and (ii) a L-chain comprising the VL amino acid sequence of SEQ ID NO: 26. (i) a H-chain comprising the VH amino acid sequence of SEQ ID NO: 24; and (ii) a L-chain comprising the VL amino acid sequence of SEQ ID NO: 26.
An apparatus for providing battery information, comprising: a first communication unit configured to receive first battery information related to a battery from a battery management system by using a first communication protocol; a second communication unit configured to receive second battery information related to the battery and different from the first battery information from the battery management system by using a second communication protocol different from the first communication protocol; and a data conversion unit connected to the first communication unit and the second communication unit and configured to obtain first conversion information by converting the first battery information into a predetermined data structure, obtain second conversion information by converting the second battery information into the predetermined data structure and output the first conversion information and the second conversion information, wherein the first conversion information and the second conversion information are configured to have the same data structure. a first communication unit configured to receive first battery information related to a battery from a battery management system by using a first communication protocol; a second communication unit configured to receive second battery information related to the battery and different from the first battery information from the battery management system by using a second communication protocol different from the first communication protocol; and a data conversion unit connected to the first communication unit and the second communication unit and configured to obtain first conversion information by converting the first battery information into a predetermined data structure, obtain second conversion information by converting the second battery information into the predetermined data structure and output the first conversion information and the second conversion information, wherein the first conversion information and the second conversion information are configured to have the same data structure.