mhurhangee/ep-ind-claims huggingface dataset:
A fuel cell system comprising: a controller; a wall temperature sensor configured to sense a temperature of a wall of a conduit within the system; and a temperature sensor that has a physical presence in the conduit and is mounted to the wall of the conduit; the controller operative to iteratively apply a thermal model to calculate a predicted temperature value that is, based on temperature values measured using the temperature sensor in the conduit and the wall temperature sensor, expected to be measured as the temperature of a gas flowing in the conduit; wherein, when in an iterative step the predicted temperature value does not fulfil an interrupt criterion, an input temperature value used in a next iterative step is altered based on a difference between the temperatures measured by the sensors. a controller; a wall temperature sensor configured to sense a temperature of a wall of a conduit within the system; and a temperature sensor that has a physical presence in the conduit and is mounted to the wall of the conduit; the controller operative to iteratively apply a thermal model to calculate a predicted temperature value that is, based on temperature values measured using the temperature sensor in the conduit and the wall temperature sensor, expected to be measured as the temperature of a gas flowing in the conduit; wherein, when in an iterative step the predicted temperature value does not fulfil an interrupt criterion, an input temperature value used in a next iterative step is altered based on a difference between the temperatures measured by the sensors.
An apparatus for tracking inspection data, comprising an inspection chassis comprising a plurality of inspection sensors configured to interrogate an inspection surface; a first drive module coupled to the inspection chassis, the first drive module comprising a first passive encoder wheel and a first non-contact sensor positioned in proximity to the first passive encoder wheel, wherein the first non-contact sensor provides a first movement value corresponding to the first passive encoder wheel; a second drive module coupled to the inspection chassis, the second drive module comprising a second passive encoder wheel and a second non-contact sensor positioned in proximity to the second passive encoder wheel, wherein the second non-contact sensor provides a second movement value corresponding to the second passive encoder wheel; and an inspection position circuit structured to determine a relative position of the inspection chassis in response to the first movement value, the second movement value, a first circumference value of the first passive encoder wheel, and a second circumference value of the second passive encoder wheel, wherein the first and second drive modules (15204, 15210) provide the first and second circumference values (15224, 15240) respectively to the inspection position circuit. an inspection chassis comprising a plurality of inspection sensors configured to interrogate an inspection surface; a first drive module coupled to the inspection chassis, the first drive module comprising a first passive encoder wheel and a first non-contact sensor positioned in proximity to the first passive encoder wheel, wherein the first non-contact sensor provides a first movement value corresponding to the first passive encoder wheel; a second drive module coupled to the inspection chassis, the second drive module comprising a second passive encoder wheel and a second non-contact sensor positioned in proximity to the second passive encoder wheel, wherein the second non-contact sensor provides a second movement value corresponding to the second passive encoder wheel; and an inspection position circuit structured to determine a relative position of the inspection chassis in response to the first movement value, the second movement value, a first circumference value of the first passive encoder wheel, and a second circumference value of the second passive encoder wheel, wherein the first and second drive modules (15204, 15210) provide the first and second circumference values (15224, 15240) respectively to the inspection position circuit.
Method, comprising - generating a first key for a mobile node at a home domain network of said mobile node; - storing said first key at said home domain network; - sending said first key to said mobile node by said home domain network; - receiving a request to authenticate the mobile node from a visited domain network at said home domain network; the method being further characterized by: - generating a second key at said home domain network using said first key and a random number; and - sending said random number and said second key to said visited domain network by said home domain network. - generating a first key for a mobile node at a home domain network of said mobile node; - storing said first key at said home domain network; - sending said first key to said mobile node by said home domain network; - receiving a request to authenticate the mobile node from a visited domain network at said home domain network; the method being further characterized by: - generating a second key at said home domain network using said first key and a random number; and - sending said random number and said second key to said visited domain network by said home domain network. - generating a second key at said home domain network using said first key and a random number; and - sending said random number and said second key to said visited domain network by said home domain network.
A compound represented by formula I: including salts thereof, wherein the stereochemical configuration at a stereocenter in a compound represented by formula I is R, S, or a mixture thereof.
An organofluorine coating on a major surface of a substrate, wherein the organofluorine coating has a composition of 5 at% to 15 at% oxygen and 30 at% to 50 at% fluorine, wherein the major surface of the substrate comprises protruding or recessed structures with a density of 10 structures per mm 2 to 10,000 structures per mm 2, and wherein the coating overlies and conforms to the structures.
A yoke cover for use in a torque detection device including paired detection coils (13a, 13b) having impedance varied by torque generated at a rotary shaft and configured to detect the torque in accordance with output voltage of the detection coils (13a, 13b), the single yoke cover interposed between two electromagnetic yokes (11a, 11b) axially facing each other and fitted to inner circumferences of cylindrical portions of the two electromagnetic yokes (11a, 11b) to retain the two electromagnetic yokes (11a, 11b), the yoke cover comprising a plurality of circumferentially aligned protrusions extending radially outward from the inner circumferences of the electromagnetic yokes (11a, 11b), engaging with a plurality of circumferentially aligned dent portions provided at ends facing each other of the two electromagnetic yokes (11a, 11b) to butt the dent portions, and each having a dented surface (A, B) in an axial end surface (10A, 10B), and an axial length of the protrusion is shorter than an axial length of an inner circumferential portion of the yoke cover.
A method of detecting and quantifying the amount of Brassica A genomic DNA in a sample, the method comprising: (a) specifically amplifying a genomic DNA fragment of the Brassica A genome which comprises a FatA gene, wherein the amplification is performed with a primer pair comprising nucleotide sequences selected from the group consisting of SEQ ID NOS: 21, 22, 23, and 24, and wherein the amplified DNA fragment comprises at least one of the nucleotide sequences of a genomic region selected from the group consisting of SEQ ID NOS: 25, 26, 27 and 28; and (b) detecting and quantifying the Brassica A genome from the amplified fragment of the Brassica A genome, wherein the amplification does not substantially amplify Brassica B and C genomic DNA. (a) specifically amplifying a genomic DNA fragment of the Brassica A genome which comprises a FatA gene, wherein the amplification is performed with a primer pair comprising nucleotide sequences selected from the group consisting of SEQ ID NOS: 21, 22, 23, and 24, and wherein the amplified DNA fragment comprises at least one of the nucleotide sequences of a genomic region selected from the group consisting of SEQ ID NOS: 25, 26, 27 and 28; and (b) detecting and quantifying the Brassica A genome from the amplified fragment of the Brassica A genome, wherein the amplification does not substantially amplify Brassica B and C genomic DNA.
A computer-implemented method of coating a workpiece, comprising: establishing electronic communication between a controller (146 a,b) having a processor and at least one robot (118 a,b) having a coating applicator (128 a); executing instructions with the processor that control the robot, the instructions written on a non-transient computer-readable medium; determining a wet-surface time (T WET) for each of a plurality of segments (350, 400, 402) of the surface of the workpiece upon which a first layer of coating is applied; selecting at least one segment from the plurality of segments of the workpiece based at least in part on the wet-surface time for the first layer of coating wherein the selecting includes changing a size of the at least one segment to permit complete coating of the at least one segment with the first layer of coating prior to the wet-surface time of the at least one segment elapsing; applying the first layer of coating to the at least one segment of said surface of the workpiece with the at least one robot (118a,b); and, applying a second layer of coating to the at least one segment for which the wet-surface time has been determined with the at least one robot prior to the wet-surface time elapsing for the at least one segment. establishing electronic communication between a controller (146 a,b) having a processor and at least one robot (118 a,b) having a coating applicator (128 a); executing instructions with the processor that control the robot, the instructions written on a non-transient computer-readable medium; determining a wet-surface time (T WET) for each of a plurality of segments (350, 400, 402) of the surface of the workpiece upon which a first layer of coating is applied; selecting at least one segment from the plurality of segments of the workpiece based at least in part on the wet-surface time for the first layer of coating wherein the selecting includes changing a size of the at least one segment to permit complete coating of the at least one segment with the first layer of coating prior to the wet-surface time of the at least one segment elapsing; applying the first layer of coating to the at least one segment of said surface of the workpiece with the at least one robot (118a,b); and, applying a second layer of coating to the at least one segment for which the wet-surface time has been determined with the at least one robot prior to the wet-surface time elapsing for the at least one segment.
A battery apparatus comprising: a battery pack; a heater connected between a positive terminal (PV(+)) and a negative terminal (PV(-)) of the battery pack; and a processor configured to control the heater, wherein the heater includes: a relay including a relay switch and a relay coil configured to drive the relay switch a heating resistor connected in series with the relay switch between the positive terminal and the negative terminal; characterized in that it further comprises a first driver connected between a power supply for supplying a first voltage and a first terminal of the relay coil, and configured to control transfer of the first voltage; and a second driver connected between a second terminal of the relay coil and a terminal having a second voltage lower than the first voltage, and configured to control transfer of the second voltage, wherein a third voltage (Vs) for diagnosis is transferred to the second terminal of the relay coil, and wherein the processor is configured to control the first driver and the second driver, and diagnose the heater based on a voltage of the first terminal of the relay coil and a voltage of the second terminal of the relay coil. a battery pack; a heater connected between a positive terminal (PV(+)) and a negative terminal (PV(-)) of the battery pack; and a processor configured to control the heater, wherein the heater includes: a relay including a relay switch and a relay coil configured to drive the relay switch a heating resistor connected in series with the relay switch between the positive terminal and the negative terminal; characterized in that it further comprises a first driver connected between a power supply for supplying a first voltage and a first terminal of the relay coil, and configured to control transfer of the first voltage; and a second driver connected between a second terminal of the relay coil and a terminal having a second voltage lower than the first voltage, and configured to control transfer of the second voltage, a relay including a relay switch and a relay coil configured to drive the relay switch a heating resistor connected in series with the relay switch between the positive terminal and the negative terminal; characterized in that it further comprises a first driver connected between a power supply for supplying a first voltage and a first terminal of the relay coil, and configured to control transfer of the first voltage; and a second driver connected between a second terminal of the relay coil and a terminal having a second voltage lower than the first voltage, and configured to control transfer of the second voltage, wherein a third voltage (Vs) for diagnosis is transferred to the second terminal of the relay coil, and wherein the processor is configured to control the first driver and the second driver, and diagnose the heater based on a voltage of the first terminal of the relay coil and a voltage of the second terminal of the relay coil.
A ready to use urinary catheter assembly comprising at least one urinary catheter having on at least a part of its surface a hydrophilic surface layer intended to produce a low-friction surface character of the catheter by treatment with a liquid swelling medium prior to use of the catheter and a catheter package (7,16, 29, 34, 42, 46, 51, 51') having a cavity (11, 18, 39, 48, 53) for accommodation of the catheter (1, 58, 69) characterised in that the package (7,16, 29, 34, 42, 46, 51, 51') includes a compartment (12, 19, 25, 30, 35, 40, 47, 54, 54', 56, 64, 71, 78, 82) having walls of a gas-impermeable material, said compartment accommodating said liquid swelling medium for provision of a ready-to-use catheter assembly, the catheter package (7,16) as a whole is made of a gas impermeable material and said compartment (12, 19) is in liquid flow communication with the cavity (11, 18) for accommodation of the catheter, said package comprises a first generally tubular part defining said cavity to narrowly surround the catheter and a second generally tubular part defining said compartment.
A shelf providing a common support services infrastructure adapted to accommodate a shelf controller and comprising a sub-shelf bay with a plurality of sub-shelf positions capable of holding a plurality of sub-shelves (110a-110d) with cards, characterized in that: said shelf is equipped with a plurality of distribution panels (115, 320, 130) each accommodating intra-shelf communication channels connecting the shelf controller and all said sub-shelves (110a-110d), the communication channels of each panel carrying signals that enable performance of a specific common support service for the cards in all said sub-shelves, wherein said support services include at least power distribution, distribution of control traffic, display of status information for sub-shelves and alarm conditions. said shelf is equipped with a plurality of distribution panels (115, 320, 130) each accommodating intra-shelf communication channels connecting the shelf controller and all said sub-shelves (110a-110d), the communication channels of each panel carrying signals that enable performance of a specific common support service for the cards in all said sub-shelves, wherein said support services include at least power distribution, distribution of control traffic, display of status information for sub-shelves and alarm conditions.
A process for preparing an amine compound, characterized in that an imine compound or an enamine compound is diastereoselectively reduced using hydrogen gas or an organic or inorganic hydrogen-donating compound, under the presence of an organometallic compound of general formula: wherein in general formula, Ar is a cyclopentadienyl group or an aromatic compound, in which one or more hydrogen atoms may be substituted by a substituent W, and W denotes a saturated or unsaturated C1-10 hydrocarbon group, an aryl group, a heterocyclyl group, an alkoxy group, a fluoroalkyl group, an acyl group, an ester group, a hydroxyl group, an amino group, an amide group, a carboxyl group, a sulfonyl group, a nitro group, a cyano group, a sulfenyl group, a sulfo group, a mercapto group, a phosphino group, a silyl group or a halogen group, M is ruthenium, rhodium, or iridium, X is a hydride group or an anionic group, E denotes a link group which is a saturated or unsaturated C1-6 hydrocarbon group in which one or more hydrogen atoms may be substituted by a substituent W, or which is an arylene group in which one or more hydrogen atoms may be substituted by C1-10 alkyl group, cycloalkyl group, aryl group, alkenyl group, acyl group, halogen group, ester group, amino group, amide group, carboxyl group, hydroxyl group, nitro group, cyano group, sulfenyl group, sulfo group, or thiol group, wherein one or more hydrogen atoms in each of said substituents may further be substituted by W, A is an amide group having a binding mode of "M-NR 1 C -E, " or an oxygen atom, wherein when A is an oxygen atom, E is an arylene group in which one or more hydrogen atoms may be substituted by a substituent W, R 1 denotes a hydrogen atom, a C1-10 alkyl group, a cycloalkyl group, an aryl group, a heterocyclyl group, an alkenyl group, an alkynyl group, an ester group, an acyl group, an amide group, a phosphino group, a sulfenyl group, a sulfinyl group, a sulfonyl group or a silyl group, in which one or more hydrogen atoms may be substituted by a substituent W, wherein one or more hydrogen atoms in the substituent W may further be substituted by a substituent W, Y and Z are identical or mutually different, and denote a C1-10 alkyl group, a cycloalkyl group, an aryl group, a heterocyclyl group, an alkenyl group, or a silyl group, in which one or more hydrogen atoms may be substituted by a substituent W, wherein "Y and Z," "Z and E," "Y and E," or "Y-Z-E" may be bound to form a ring, and n denotes an integer of 0 or 1, wherein when n=0, the bond between N-Z or N-E is a double bond.
A foldable and movable carrier, comprising: a locking mechanism having a locked state and an unlocked state; a first rod provided with a first mating portion; and a second rod pivotally connected to the first rod, and the second rod being provided with a second mating portion detachably mating with the first mating portion; characterized in that, when the locking mechanism is in the locked state, the first rod and the second rod are relatively fixed; when the locking mechanism is in the unlocked state, if the first mating portion mates with the second mating portion, the first rod and the second rod are relatively fixed, if the first mating portion and the second mating portion are released from mating, the first rod is capable of rotating relative to the second rod, so as to fold or unfold the movable carrier. a locking mechanism having a locked state and an unlocked state; a first rod provided with a first mating portion; and a second rod pivotally connected to the first rod, and the second rod being provided with a second mating portion detachably mating with the first mating portion; characterized in that, when the locking mechanism is in the locked state, the first rod and the second rod are relatively fixed; when the locking mechanism is in the unlocked state, if the first mating portion mates with the second mating portion, the first rod and the second rod are relatively fixed, if the first mating portion and the second mating portion are released from mating, the first rod is capable of rotating relative to the second rod, so as to fold or unfold the movable carrier.
A fishing ship comprising fishing equipment, fish processing equipment, and a fish storage arrangement for storage of processed fish, a main engine for propulsion of the fishing ship, and a silage facility configured to receive marine feed and to process it into a fish protein concentrate silage product, wherein the silage facility comprises - a marine feed inlet line; - a silage tank connected to the marine feed inlet line and comprising a silage tank agitator and a heating arrangement, the silage tank being configured to produce an autolyzed silage of the marine feed; - an acid supply arrangement configured to supply an acid to the marine feed in the silage tank; - a decanter configured to receive the silage and to separate it into oil and a separated silage, wherein the decanter comprises an oil outlet and a separated silage outlet; - an evaporation tank comprising an agitator and a heating arrangement, the evaporation tank being configured to receive the separated silage, and wherein the evaporation tank is configured to remove water from the received separated silage, as it is connected to a vacuum unit, and to produce a fish protein concentrate silage product that comprises less water than the separated silage; and wherein the ship comprises a storage tank configured to receive the fish protein concentrate silage product. - a marine feed inlet line; - a silage tank connected to the marine feed inlet line and comprising a silage tank agitator and a heating arrangement, the silage tank being configured to produce an autolyzed silage of the marine feed; - an acid supply arrangement configured to supply an acid to the marine feed in the silage tank; - a decanter configured to receive the silage and to separate it into oil and a separated silage, wherein the decanter comprises an oil outlet and a separated silage outlet; - an evaporation tank comprising an agitator and a heating arrangement, the evaporation tank being configured to receive the separated silage, and wherein the evaporation tank is configured to remove water from the received separated silage, as it is connected to a vacuum unit, and to produce a fish protein concentrate silage product that comprises less water than the separated silage;
A fluidized bed reactor comprising a) a gas inlet and a gas outlet being located downstream from said gas inlet; b) a tube inserted between said gas inlet and said gas outlet; c) a heating part connected to said tube; wherein said tube comprises an upstream zone and a downstream zone, said upstream zone and said downstream zone being separated by a separation filter, said upstream zone being further delimited by a first porous filter and said downstream zone being further delimited by a second porous filter; characterized in that said tube is inserted inside a first seal and a second seal, respectively, between said gas inlet and said gas outlet; and at least one vibrator is positioned outside of said tube, between the gas inlet and the first seal. a) a gas inlet and a gas outlet being located downstream from said gas inlet; b) a tube inserted between said gas inlet and said gas outlet; c) a heating part connected to said tube; wherein said tube comprises an upstream zone and a downstream zone, said upstream zone and said downstream zone being separated by a separation filter, said upstream zone being further delimited by a first porous filter and said downstream zone being further delimited by a second porous filter; characterized in that said tube is inserted inside a first seal and a second seal, respectively, between said gas inlet and said gas outlet; and at least one vibrator is positioned outside of said tube, between the gas inlet and the first seal.