mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for automatically composing data center resources in a data center, wherein the computer-implemented method comprises: causing a management software of the data center to collect connection status between a plurality of nodes (104-A, 104-B) and a plurality of switches (107, 109) in the data center, and among the plurality of switches (107, 109); receiving the connection status from the management software; generating a network topology of the data center based upon the connection status; wherein the method is characterized by further comprising: patching a network name for each Ethernet interface of the plurality of nodes (104-A, 104-B), wherein a specific Ethernet interface of the plurality of nodes (104-A, 104-B) is patched with a name of a corresponding network connected to the specific Ethernet interface; determining matched nodes among the plurality of nodes (104-A, 104-B) based upon the network name patched to each Ethernet interface of the plurality of nodes (104-A, 104-B); receiving a request from a user device of a user; and composing resources of the data center to support the request based at least upon information of the matched nodes. causing a management software of the data center to collect connection status between a plurality of nodes (104-A, 104-B) and a plurality of switches (107, 109) in the data center, and among the plurality of switches (107, 109); receiving the connection status from the management software; generating a network topology of the data center based upon the connection status; wherein the method is characterized by further comprising: patching a network name for each Ethernet interface of the plurality of nodes (104-A, 104-B), wherein a specific Ethernet interface of the plurality of nodes (104-A, 104-B) is patched with a name of a corresponding network connected to the specific Ethernet interface; determining matched nodes among the plurality of nodes (104-A, 104-B) based upon the network name patched to each Ethernet interface of the plurality of nodes (104-A, 104-B); receiving a request from a user device of a user; and composing resources of the data center to support the request based at least upon information of the matched nodes. patching a network name for each Ethernet interface of the plurality of nodes (104-A, 104-B), wherein a specific Ethernet interface of the plurality of nodes (104-A, 104-B) is patched with a name of a corresponding network connected to the specific Ethernet interface; determining matched nodes among the plurality of nodes (104-A, 104-B) based upon the network name patched to each Ethernet interface of the plurality of nodes (104-A, 104-B); receiving a request from a user device of a user; and composing resources of the data center to support the request based at least upon information of the matched nodes.
A method for producing a high strength steel sheet having an improved strength and an improved formability, the sheet having a yield strength YS of at least 850 MPa, a tensile strength TS of at least 1180 MPa, a total elongation of at least 13 % and a hole expansion ratio HER measured according to the ISO standard 16630:2009 of at least 30%, by heat treating a steel sheet wherein the chemical composition of the steel contains in weight %: 0.13% ≤ C ≤ 0.22% 1.2% ≤ Si ≤ 1.8% 1.8% ≤ Mn ≤ 2.2% 0.10% ≤ Mo ≤ 0.20% Nb ≤ 0.05 % Ti ≤ 0.05 % Al ≤ 0.5% the remainder being Fe and unavoidable impurities, including less than 0.05% Ni, less than 0.10% Cr, less than 0.03% Cu, less than 0.007% V, less than 0.0010% B, less than 0.005% S, less than 0.02% P and less than 0.010% N, and wherein the heat treatment comprises the following steps: - annealing the sheet at an annealing temperature TA higher than 865°C but less than 1000°C for a time of more than 30 s, - quenching the sheet by cooling it down to a quenching temperature QT between 310°C and 375°C, at a cooling speed of at least 30°C/s in order to have, just after quenching, a structure consisting of austenite and at least 50% of martensite, the austenite content being such that the final structure i.e. after treatment and cooling to the room temperature, contains between 3 % and 15% of residual austenite and between 85 % and 97% of the sum of martensite and bainite without ferrite, - heating the sheet up to a partitioning temperature PT between 370°C and 470°C and maintaining the sheet at this temperature for a partitioning time Pt between 50 s and 150 s, the temperature of the sheet remaining between PT-10°C and PT+10°C during partitioning, and, - cooling the sheet down to the room temperature. 0.13% ≤ C ≤ 0.22% 1.2% ≤ Si ≤ 1.8% 1.8% ≤ Mn ≤ 2.2% 0.10% ≤ Mo ≤ 0.20% Nb ≤ 0.05 % Ti ≤ 0.05 % Al ≤ 0.5% - annealing the sheet at an annealing temperature TA higher than 865°C but less than 1000°C for a time of more than 30 s, - quenching the sheet by cooling it down to a quenching temperature QT between 310°C and 375°C, at a cooling speed of at least 30°C/s in order to have, just after quenching, a structure consisting of austenite and at least 50% of martensite, the austenite content being such that the final structure i.e. after treatment and cooling to the room temperature, contains between 3 % and 15% of residual austenite and between 85 % and 97% of the sum of martensite and bainite without ferrite, - heating the sheet up to a partitioning temperature PT between 370°C and 470°C and maintaining the sheet at this temperature for a partitioning time Pt between 50 s and 150 s, the temperature of the sheet remaining between PT-10°C and PT+10°C during partitioning, and, - cooling the sheet down to the room temperature.
Process for preparing an oral delivery system for collagen peptides, suitable for administration to both human and non-human animals, the oral delivery system comprising a frozen dessert and a collagen peptide, the total amount of collagen peptide in the delivery system being less than or equal to 20% by weight of the delivery system, the process comprising the following steps: • adding the collagen peptides to the ingredients of a typical commercial ice cream product; • passing the mixture through either a single-stage, or a double-stage, homogenizer; • cooling and aging the homogenized mixture; • freezing the homogenized mixture by subjecting it to agitation, whipping and aeration to incorporate a selected amount of air, and to avoid the formation of large ice crystals in, or a stratification of, the product; wherein said homogenized mixture is rapidly cooled to a temperature comprised in the range from 0°C (32°F) to 4,5°C (40°F) and is then held in this temperature range for a period from 1 hour to 12 hours. • adding the collagen peptides to the ingredients of a typical commercial ice cream product; • passing the mixture through either a single-stage, or a double-stage, homogenizer; • cooling and aging the homogenized mixture; • freezing the homogenized mixture by subjecting it to agitation, whipping and aeration to incorporate a selected amount of air, and to avoid the formation of large ice crystals in, or a stratification of, the product;
A flexible electrophoretic film (701,705) comprising an electrophoretic cell (302,316) containing an electrophoretic ink, a first electrode and a substrate adjoining and covering one face of said cell, and a composite (904, 905, 906) of optical layers (850,851,855) adjoining and covering the opposite face of said electrophoretic cell, said composite of optical layers including one or more carrier layers (893,894) and a conductive layer providing a second electrode, characterised in that said composite of optical layers comprises two or more conductive layers (850, 851), the second electrode being the conductive layer nearest said electrophoretic cell, and said composite of optical layers is transmitting the sunlight visible spectrum and significantly rejecting the sunlight infrared spectrum.
A polyester polyol containing 1,3-propanediol having an alicyclic skeleton in a side chain, 3-methyl-1,5-pentanediol and a dibasic acid component as constituent components.
Household electrical appliance for preparing beverages comprising a working receptacle having a bottom including grinding means and comprising an upper opening for the introduction of food, said working receptacle comprising a pusher device comprising a head insertable into said working receptacle through said upper opening and including a filtration device carried by a peripheral enclosure of the working receptacle or through the head of the pusher device of the working receptacle, characterised in that said grinding means include a grating disc.
A bracing device for securing a lining frame to a structure to be lined, said device comprising a main portion extending in a direction referred to as the axial direction, one end of which portion is provided with means for securing it to the structure to be lined, and the other end of which is provided with means for attachment to at least one membrane, characterized in that said attachment means comprise a first jaw surrounding the main portion and a second jaw supported by the first jaw, coupling means allowing said jaws (15, 17) to be axially clamped together by rotation of the second jaw with respect to the first jaw, said two jaws being arranged so as to pinch therebetween, after assembly, the membrane, said membrane remaining integrated after assembly.
An inverter device having an inverter module for converting direct current power into alternate current power and supplying the AC power to a load, the device including: a casing housing the inverter module therein and having a plurality of heat dissipation holes defined in a rear face thereof; an input/output terminal unit fastened to a top of a front face of the casing using first fasteners, wherein a plurality of cables are electrically coupled to an inner face of the input/output terminal unit using second fasteners; and a heat dissipation fan disposed below the input/output terminal unit and fixed to the front face of the casing, wherein the fan discharges heat generated from the inverter module to an outside of the casing through the heat dissipation holes, characterized in that the input/output terminal unit is open at a front and a top thereof, wherein the input/output terminal unit is composed of a plurality of terminal blocks, each block having a slot formed therein, wherein the terminal blocks are arranged horizontally and are individually fastened to the casing. a casing housing the inverter module therein and having a plurality of heat dissipation holes defined in a rear face thereof; an input/output terminal unit fastened to a top of a front face of the casing using first fasteners, wherein a plurality of cables are electrically coupled to an inner face of the input/output terminal unit using second fasteners; and a heat dissipation fan disposed below the input/output terminal unit and fixed to the front face of the casing, wherein the fan discharges heat generated from the inverter module to an outside of the casing through the heat dissipation holes, characterized in that the input/output terminal unit is open at a front and a top thereof, wherein the input/output terminal unit is composed of a plurality of terminal blocks, each block having a slot formed therein, wherein the terminal blocks are arranged horizontally and are individually fastened to the casing.
An electric power conversion apparatus configured to convert electric power from DC or AC to AC or DC, wherein when a constituent element constituted of a leg in which two switching elements provided with self-arc-extinguishing capability are connected in series, and a capacitor connected in parallel with the leg is made a converter unit, and a constituent element formed by connecting one or more converter units in series is made a phase arm, a phase arm on the positive side, a single-phase four-winding transformer, and a phase arm on the negative side are included in each of three phases (U, V, W), one end of the phase arm on the positive side is connected to the positive side of a secondary windings of the four-winding transformer, and the other end thereof is connected to a DC positive side terminal, one end of the phase arm on the negative side is connected to the positive side of a tertiary windings of the four-winding transformer, and the other end thereof is connected to a DC negative side terminal, the negative sides of the secondary windings and the negative sides of the tertiary windings of the four-winding transformers are connected to each other, and are connected to each other between the three phases (U, V, W), the negative sides of primary windings of the four-winding transformers are connected to each other, quartic windings of the four-winding transformers are connected to each other in series to form delta connection, the electric power conversion apparatus comprising: a first AC circuit breaker connected between the positive sides of the primary windings of the four-winding transformers, and a high-voltage AC power system; and a second AC circuit breaker, and initial charging rush current suppression resistors connected in series between the quartic windings of the four-winding transformers, and a low-voltage AC power supply. a first AC circuit breaker connected between the positive sides of the primary windings of the four-winding transformers, and a high-voltage AC power system; and a second AC circuit breaker, and initial charging rush current suppression resistors connected in series between the quartic windings of the four-winding transformers, and a low-voltage AC power supply.
Vehicle cockpit component (10, 12, 14, 16, 18), of the kind comprising at least a supporting frame and a padding and/or an upholstery fitted on said supporting frame, wherein said component is provided with a heating device, wherein said heating device comprises a polyurethane-based foam charged and/or impregnated with an electrically conductive filler, said polyurethane-based foam charged and/or impregnated with an electrically conductive filler being directly connected to means for generating a voltage difference (7a, 7b; 11a, 11b; 13a, 13b) for generating heat by Joule effect, characterized in that said heating device is used as padding and/or upholstery of said component and said polyurethane-based foam charged and/or impregnated with an electrically conductive filler forms the padding and/or the upholstery of said component, at least at one or more portions of said padding and/or of said upholstery, respectively.
Cooled storage system comprising: - a grid structure of storage cells, where each storage cell is arranged to accommodate a vertical stack of storage bins and having a top level, - a remotely operated vehicle arranged to move at the top level of the grid structure and receive a bin from a storage cell at the top level of the grid structure, where there is provided thermal insulation between at least a section of the grid structure and the remotely operated vehicle, and said section of the grid structure has a temperature that is lower than the temperature of the remotely operated vehicle, the thermal insulation comprising a number of insulated covers arranged at each storage cell at the top level of the grid structure, characterized in that the grid structure comprises a plurality of columns interconnected by top rails, and that the cooled storage system comprises a plurality of remotely operated vehicles arranged to move on the top rails of the grid structure and receive a bin from a storage cell at the top level of the grid structure, each of the plurality of remotely operated vehicles comprises a first section for storing vehicle driving means, a second section for receiving a top level storage bin stored in a stack within the storage system and a vehicle lifting device at least indirectly connected to the vehicle body for lifting any of a storage bin and an insulated cover into the second section, the insulated covers are arranged to be movable by means of the remotely operated vehicles, such that an insulated cover may be moved by one of the remotely operated vehicles from one storage cell to another. - a grid structure of storage cells, where each storage cell is arranged to accommodate a vertical stack of storage bins and having a top level, - a remotely operated vehicle arranged to move at the top level of the grid structure and receive a bin from a storage cell at the top level of the grid structure,
Pipetting device having a tube, wherein a liquid space of the tube is at least partially filled with a working fluid which can be operatively connected at a first end of the tube to a pressure-generating means, wherein the tube is adapted to aspirate or dispense a sample liquid via an opening provided at a second end of the tube, wherein the working fluid and the sample liquid are electrically insulated from one another via an air gap, characterized in that a first electrode is formed on the pipetting device, which, together with a second electrode formed by at least a part of the sample liquid that can be accommodated in the tube, forms a measuring capacitor which can be operatively connected to a measuring unit which is designed, as a function of the capacitance of the measuring capacitor, to determine a volume of the aspirated or dispensed sample liquid, further characterized in that the pipetting device comprises a first electrical contact which is electrically insulated from the first electrode and the second electrode and adapted to establish an electrical connection with the working fluid, wherein the first electrical contact is electrically connectable to the measuring unit via a low-impedance converter circuit.
An alkylated alkoxylated polyethylenelmine dye, wherein the alkylated alkoxylated polyethylenelmine dye is a polyethyleneimine having covalently bound to the nitrogen groups of the polyethyleneimine: (i) a blue or violet reactive dye; (ii) an alkylene oxide; and, (iii) an alkylene chain. (i) a blue or violet reactive dye; (ii) an alkylene oxide; and, (iii) an alkylene chain.
Method for providing sheet metal pieces (4, 5, 6) which are arranged at least partially next to one another on a flat tray area, for feeding them into a sheet metal bending machine by means of a side feeding device which is arranged on the sheet metal bending machine, wherein the side feeding device has a receiving device which can be moved into the sheet metal bending machine, for receiving a sheet metal piece (4, 5, 6) to be fed into the sheet metal bending machine at a receiving position which can be reached by the receiving device above the tray area, wherein the method comprises the following steps: a) detecting the position of the sheet metal piece (4, 5, 6) to be fed into the sheet metal bending machine on the tray area, b) comparing the position detected in step a) with the receiving position that can be reached by the receiving device, and c) moving the tray area with the sheet metal piece (4, 5, 6) that is to be fed in and is located thereon relative to the sheet metal bending machine, so that the sheet metal piece (4, 5, 6) comes to lie at least partially below the receiving position that can be reached by the receiving device and can be picked up there by the receiving device if the sheet metal piece (4, 5, 6) to be fed in is not yet located below the receiving position. a) detecting the position of the sheet metal piece (4, 5, 6) to be fed into the sheet metal bending machine on the tray area, b) comparing the position detected in step a) with the receiving position that can be reached by the receiving device, and c) moving the tray area with the sheet metal piece (4, 5, 6) that is to be fed in and is located thereon relative to the sheet metal bending machine, so that the sheet metal piece (4, 5, 6) comes to lie at least partially below the receiving position that can be reached by the receiving device and can be picked up there by the receiving device if the sheet metal piece (4, 5, 6) to be fed in is not yet located below the receiving position.
An image capturing method performed by an image capturing apparatus, the image capturing method comprising: acquiring information on first positions which are current positions of a sensor and a generator in a first imaging mode; entering to a second imaging mode different from the first imaging mode; according to the entering to the second imaging mode, moving the sensor and the generator to second positions which are positions at which an image having a magnification power different from a magnification power of an image of an object acquired when the sensor and the generator are located at the first positions is acquired; and performing the second imaging mode to acquire an image of the object, wherein the sensor and the generator move the same distance so that the distance between the sensor and the generator is not changed when the magnification power is changed to be different, wherein the distance between the generator and the object at the first positions is different from the distance between the generator and the object at the second positions, wherein the first positions are according to the first imaging mode and the second positions are according to the second imaging mode different from the first imaging mode, and wherein the first imaging mode and the second imaging mode include respectively a panoramic imaging mode and a CT imaging mode, wherein the second positions are determined as positions at which a maximum magnification power image of a region of interest of the object is acquired by an active region of the sensor, and wherein the ROI includes a portion of a mouth of the object. acquiring information on first positions which are current positions of a sensor and a generator in a first imaging mode; entering to a second imaging mode different from the first imaging mode; according to the entering to the second imaging mode, moving the sensor and the generator to second positions which are positions at which an image having a magnification power different from a magnification power of an image of an object acquired when the sensor and the generator are located at the first positions is acquired; and performing the second imaging mode to acquire an image of the object, wherein the sensor and the generator move the same distance so that the distance between the sensor and the generator is not changed when the magnification power is changed to be different, wherein the distance between the generator and the object at the first positions is different from the distance between the generator and the object at the second positions, wherein the first positions are according to the first imaging mode and the second positions are according to the second imaging mode different from the first imaging mode, and wherein the first imaging mode and the second imaging mode include respectively a panoramic imaging mode and a CT imaging mode, wherein the second positions are determined as positions at which a maximum magnification power image of a region of interest of the object is acquired by an active region of the sensor, and wherein the ROI includes a portion of a mouth of the object.
A wear member for excavating equipment comprising a working section and a mounting section extending generally along a longitudinal axis, the mounting section including a socket for receiving a base fixed to the excavating equipment, and the socket having a front stabilizing end that includes a thrust face, a top surface, a bottom surface, a first side surface, and a second side surface, wherein the top surface, the bottom surface, the first side surface, and the second side surface each extend rearward from the thrust surface, characterized in that at least one of the top surface and the bottom surface has in a transverse direction a transverse, inward projection in the front stabilizing end with a stabilizing surface that extends axially substantially parallel to the longitudinal axis to resist vertical and horizontal loads.