mhurhangee/ep-ind-claims huggingface dataset:
A light engine unit (102; 400; 500), comprising: a body comprising a back reflector (404; 600; 620; 640; 660) on a surface of said body; and a heat sink (406; 502; 1804) mounted proximate to said back reflector and running longitudinally along a central region of the body, said heat sink comprising a mount surface (408; 504) that faces toward said back reflector, said mount surface capable of having at least one light emitter (706; 720; 802; 822; 842) mounted thereto, the region between said heat sink and said body defining an interior cavity; characterised in that said heat sink (406; 502;1804) is offset from said body such that said mount surface is entirely below a bottom edge of said body. a body comprising a back reflector (404; 600; 620; 640; 660) on a surface of said body; and a heat sink (406; 502; 1804) mounted proximate to said back reflector and running longitudinally along a central region of the body, said heat sink comprising a mount surface (408; 504) that faces toward said back reflector, said mount surface capable of having at least one light emitter (706; 720; 802; 822; 842) mounted thereto, the region between said heat sink and said body defining an interior cavity; characterised in that said heat sink (406; 502;1804) is offset from said body such that said mount surface is entirely below a bottom edge of said body.
Method for controlling a temperature of a battery cell (22, 24) in a battery module, the method comprising the steps of: - determining an initial temperature of the battery cell (22, 24) from the temperature of the battery module; - measuring a current flowing into or out of the battery cell (22, 24); - determining an actual temperature gradient of the battery cell (22, 24) using a thermal battery cell model described by a differential equation of a temperature of the battery cell (22, 24) with respect to time, containing at least a term of heat loss from the battery cell (22, 24) and a term of heat transfer between the battery cell (22, 24) and an adjacent medium, for which input values comprise at least the determined initial temperature and the measured current, wherein the thermal battery cell model further comprises mechanical information from which a thermal stress of the battery cell (22, 24) and/or a housing in connection with an actual temperature gradient is derived, wherein the thermal battery cell model reflects a variation of shape of the cells (22, 24) and/or housing depending on a temperature gradient; - comparing the determined temperature gradient of the battery cell (22, 24) with a pre-defined desired temperature gradient; and - adjusting the current flowing into or out of the battery cell (22, 24) to be less if the determined temperature gradient of the battery cell (22, 24) is higher than the pre-defined desired temperature gradient, according to a result of the comparison; and - using a predefined admissible deformation in order to ensure that the corresponding admissible thermal stress is not exceeded. - determining an initial temperature of the battery cell (22, 24) from the temperature of the battery module; - measuring a current flowing into or out of the battery cell (22, 24); - determining an actual temperature gradient of the battery cell (22, 24) using a thermal battery cell model described by a differential equation of a temperature of the battery cell (22, 24) with respect to time, containing at least a term of heat loss from the battery cell (22, 24) and a term of heat transfer between the battery cell (22, 24) and an adjacent medium, for which input values comprise at least the determined initial temperature and the measured current, wherein the thermal battery cell model further comprises mechanical information from which a thermal stress of the battery cell (22, 24) and/or a housing in connection with an actual temperature gradient is derived, wherein the thermal battery cell model reflects a variation of shape of the cells (22, 24) and/or housing depending on a temperature gradient; - comparing the determined temperature gradient of the battery cell (22, 24) with a pre-defined desired temperature gradient; and - adjusting the current flowing into or out of the battery cell (22, 24) to be less if the determined temperature gradient of the battery cell (22, 24) is higher than the pre-defined desired temperature gradient, according to a result of the comparison; and - using a predefined admissible deformation in order to ensure that the corresponding admissible thermal stress is not exceeded.
A method for highly expressing recombinant human serum albumin, comprising a step of co-expressing (a) a human serum albumin gene and (b) one or two rHSA expression promoting factor genes in a yeast host cell, wherein the yeast is Pichia pastoris; and wherein the one rHSA expression promoting factor is selected from the group consisting of transcriptional activator HAC1, binding protein KAR2, protein disulfide isomerase, endoplasmic reticulum oxidoreductase,and peptidyl-prolyl cis-trans isomerase; or wherein the two rHSA expression promoting factors are protein disulfide isomerase and transcriptional activator HAC1, or protein disulfide isomerase and peptidyl-prolyl cis-trans isomerase.
Fiber application head for the production of composite material parts by application of bands formed of several continuous fibers arranged edge to edge, comprising a compaction system comprising several independent compaction rollers (3a, 3b) and compaction cylinders (5a, 5b), and for each fiber, cutting means and rerouting means, - for each fiber, the head comprises a functional module (2a, 2b) including the cutting means and the rerouting means, each functional module is mounted so as to be movable in translation along a compaction direction on a support element of the head, - each compaction roller is mounted on one or more adjacent functional modules, - a compaction cylinder is associated with the functional module(s) associated with a compaction roller for the displacement in translation of the functional module(s), and - the compaction rollers are arranged in a single row, side by side without contact with each other, the rotation axis (B1, B2) of the compaction rollers being arranged in the same compaction plane, parallel to the compaction direction, - said head comprising at least one first functional module and at least one second functional module arranged alternately side by side, each first functional module comprising guiding means able to guide a first fiber towards a compaction roller along a first guiding plane and each second functional module comprising guiding means able to guide a second fiber towards a compaction roller along a second guiding plane, different from the first guiding plane, so as to form at the level of the compaction rollers a fiber band formed by first and second fibers arranged alternately edge to edge. - for each fiber, the head comprises a functional module (2a, 2b) including the cutting means and the rerouting means, each functional module is mounted so as to be movable in translation along a compaction direction on a support element of the head, - each compaction roller is mounted on one or more adjacent functional modules, - a compaction cylinder is associated with the functional module(s) associated with a compaction roller for the displacement in translation of the functional module(s), and - the compaction rollers are arranged in a single row, side by side without contact with each other, the rotation axis (B1, B2) of the compaction rollers being arranged in the same compaction plane, parallel to the compaction direction, - said head comprising at least one first functional module and at least one second functional module arranged alternately side by side, each first functional module comprising guiding means able to guide a first fiber towards a compaction roller along a first guiding plane and each second functional module comprising guiding means able to guide a second fiber towards a compaction roller along a second guiding plane, different from the first guiding plane, so as to form at the level of the compaction rollers a fiber band formed by first and second fibers arranged alternately edge to edge.
A contact lens composition comprising: (a) a polymerizable crosslinking agent having a polycyclic alicyclic hydrocarbon structure; and (b) a radical-polymerizable group-containing silicone, wherein the contact lens has a content rate of the polymerizable crosslinking agent (a) having a polycyclic alicyclic hydrocarbon structure within a range of 20% by mass or more and 95% by mass or less. (a) a polymerizable crosslinking agent having a polycyclic alicyclic hydrocarbon structure; and (b) a radical-polymerizable group-containing silicone,
A device for pretreating a filler for paper product, comprising: a screw pump, a homogenizer, a material delivery pump, a metering tank, a microwave reactor, a main reactor, an energy conversion system, a decompressor, a dehydrator, a recycling water tank and a recycling pump, wherein a raw material is fed at an input end of the screw pump, an output end of the screw pump is connected with the homogenizer through a pipeline, an input end of the homogenizer is a raw filler inlet and provided with an input of a constantly open pipeline for high-temperature circulating liquid, the material delivery pump is installed on a connecting pipeline between an output end of the homogenizer and an input end of the microwave reactor, an output end of the microwave reactor is connected with an input end of the main reactor through a pipeline, an output end of the main reactor is connected with the energy conversion system through a pipeline, the energy conversion system, the decompressor, the dehydrator, the recycling water tank and the recycling pump are sequentially connected through pipelines, the recycling pump delivers liquid in the recycling water tank to the main reactor and the metering tank, and an output end of the metering tank is connected with the homogenizer through a pipeline, thus forming a thermal and water recycling system.
A method of forming a multi-layered ceramic barrier coating, the method characterised by comprising: under a chamber pressure of greater than 1 Pascals, evaporating a low-dopant ceramic material using a first input evaporating energy that is above a threshold for depositing the low-dopant ceramic material in a low-dopant ceramic columnar microstructure versus a low-dopant ceramic branched columnar microstructure, the evaporated low-dopant ceramic material depositing on a substrate as a first layer that has the low-dopant ceramic columnar microstructure; and under the chamber pressure of greater than 1 Pascal, evaporating a high-dopant ceramic material using a second input evaporating energy that is below a threshold for depositing the high-dopant ceramic material in a high-dopant ceramic columnar microstructure versus a high-dopant ceramic branched columnar microstructure, the evaporated high-dopant ceramic material depositing on the substrate as a second layer that has the high-dopant ceramic branched columnar microstructure, wherein the low-dopant ceramic material has at least 10 wt% less dopant than the high-dopant ceramic material. under a chamber pressure of greater than 1 Pascals, evaporating a low-dopant ceramic material using a first input evaporating energy that is above a threshold for depositing the low-dopant ceramic material in a low-dopant ceramic columnar microstructure versus a low-dopant ceramic branched columnar microstructure, the evaporated low-dopant ceramic material depositing on a substrate as a first layer that has the low-dopant ceramic columnar microstructure; and under the chamber pressure of greater than 1 Pascal, evaporating a high-dopant ceramic material using a second input evaporating energy that is below a threshold for depositing the high-dopant ceramic material in a high-dopant ceramic columnar microstructure versus a high-dopant ceramic branched columnar microstructure, the evaporated high-dopant ceramic material depositing on the substrate as a second layer that has the high-dopant ceramic branched columnar microstructure, wherein the low-dopant ceramic material has at least 10 wt% less dopant than the high-dopant ceramic material.
Dishwasher having a receptacle for items to be washed and a lifting device which is designed to lift the receptacle for items to be washed from a starting position into an end position or to lower it from the end position into the starting position, wherein the lifting device has an electrical drive device which is arranged on a dishwasher cavity or on a base support of the dishwasher, characterised in that an active drive element, in particular an electric motor, of the electrical drive device is arranged on a transition area (25; 26) between a side wall (5, 6) of the dishwasher cavity and the ceiling of the dishwasher cavity.
A liquid containment assembly for a wind turbine, comprising: a support for supporting wind turbine equipment; and a flexible container suspended beneath the support characterised in that the flexible container is arranged such that it is moveable between a collapsed position, in which the liquid containment assembly has a first depth, and an expanded position, in which the liquid containment assembly has a second depth, the second depth being greater than the first depth. a support for supporting wind turbine equipment; and a flexible container suspended beneath the support characterised in that the flexible container is arranged such that it is moveable between a collapsed position, in which the liquid containment assembly has a first depth, and an expanded position, in which the liquid containment assembly has a second depth, the second depth being greater than the first depth.
A diffusing device for injecting a high concentration gas into a transverse gas stream, the diffusion device comprising: a body comprising a wall having a thickness, an outer surface, and an inner surface surrounding a hollow internal region; a projection extending from the inner surface of the body and into the hollow internal region; and an injection channel passing through the wall and projection to an injection port such that the injection port injects the high concentration gas into the transverse gas stream at a distance from the inner surface of the body, wherein the injection port has an outlet recessed from a center of the hollow internal region. a body comprising a wall having a thickness, an outer surface, and an inner surface surrounding a hollow internal region; a projection extending from the inner surface of the body and into the hollow internal region; and an injection channel passing through the wall and projection to an injection port such that the injection port injects the high concentration gas into the transverse gas stream at a distance from the inner surface of the body, wherein the injection port has an outlet recessed from a center of the hollow internal region.
A cooling and heating cabinet comprising: an inner case having a storage space therein; an outer case disposed to surround the inner case, a heat insulating cavity being provided between the outer case and the inner case, and wherein the heat insulating cavity is a single vacuum cavity; a thermoelectric element module disposed in the heat insulating cavity; a separation panel disposed inside the inner case and having a plurality of through holes, the plurality of through holes including an intake hole and a discharge hole; an agitating part (40, 40') disposed between a bottom surface of the inner case and the separation panel and having a magnet (42, 42') and a stirring fan rotating together with the magnet; and a magnetic field generating part (30, 30'), disposed outside the outer case, being configured for generating a magnetic field to cause the magnet (42, 42') to be rotated. an inner case having a storage space therein; an outer case disposed to surround the inner case, a heat insulating cavity being provided between the outer case and the inner case, and wherein the heat insulating cavity is a single vacuum cavity; a thermoelectric element module disposed in the heat insulating cavity; a separation panel disposed inside the inner case and having a plurality of through holes, the plurality of through holes including an intake hole and a discharge hole; an agitating part (40, 40') disposed between a bottom surface of the inner case and the separation panel and having a magnet (42, 42') and a stirring fan rotating together with the magnet; and a magnetic field generating part (30, 30'), disposed outside the outer case, being configured for generating a magnetic field to cause the magnet (42, 42') to be rotated.
Method for extracting, from a physical network topology, a virtual topology adapted to a predefined routing algorithm, the physical network topology including a plurality of switches connected together using their ports to receive and/or transmit packets to or from sheet switches of this physical network topology, this physical network topology being different from a physical network topology of the predefined type of network topology adapted to the predefined routing algorithm, this method comprising the following steps: a) identifying, in the physical network topology, a plurality of sub-topologies (G1-G4), these sub-topologies (G1-G4) not having any switch in common, each sub-topology being of the predefined type of network topology and including at least one sheet switch, with no switch of a sub-topology being connected to a switch of another sub-topology; b) extending each sub-topology by including therein one or more switches that are directly connected to it and not being directly connected to any other sub-topology in such a way that the extended sub-topology is of the predefined type of network topology; c) when a switch is directly connected to more than one sub-topology, splitting this switch into as many virtual switches (43-SG1, 43-SG2), with each virtual switch comprising the port or ports of the split switch with which this split switch is connected to the switch (es) of a sub-topology, the ports with which the split switch is connected to a switch that does not yet belong to any sub-topology being distributed between the virtual switches, these virtual switches being considered as switches; d) repeating steps b) and c) until each switch is included in a sub-topology, the virtual topology being comprised of said sub-topologies. a) identifying, in the physical network topology, a plurality of sub-topologies (G1-G4), these sub-topologies (G1-G4) not having any switch in common, each sub-topology being of the predefined type of network topology and including at least one sheet switch, with no switch of a sub-topology being connected to a switch of another sub-topology; b) extending each sub-topology by including therein one or more switches that are directly connected to it and not being directly connected to any other sub-topology in such a way that the extended sub-topology is of the predefined type of network topology; c) when a switch is directly connected to more than one sub-topology, splitting this switch into as many virtual switches (43-SG1, 43-SG2), with each virtual switch comprising the port or ports of the split switch with which this split switch is connected to the switch (es) of a sub-topology, the ports with which the split switch is connected to a switch that does not yet belong to any sub-topology being distributed between the virtual switches, these virtual switches being considered as switches; d) repeating steps b) and c) until each switch is included in a sub-topology, the virtual topology being comprised of said sub-topologies.
Method for the preparation of compound of formula; the method comprises step StepS1; step StepS1 comprises a reaction ReacS1; reaction ReacS1 is a reaction of a compound of formula with 1,1,1-trifluoroacetone in the presence of compound of formula; wherein R1 is C 1-4 alkyl; R4 and R5 are identical or different and independently from each other selected from the group consisting of H and C 1-4 alkyl. R1 is C 1-4 alkyl; R4 and R5 are identical or different and independently from each other selected from the group consisting of H and C 1-4 alkyl.
Signalling device for thread delivery devices or other textile technical devices, comprising - one or more light sources (36, 46), - a circuit for operating the light sources (36, 36) for display purposes, - a connecting device for electrical connection to an external line, - wherein the circuit is connected to the connecting device and - wherein the connecting device is suitable for arranging it on a securing device for a holder on a textile machine, characterised in that the circuit is a current source circuit namely a circuit for keeping the current constant. - one or more light sources (36, 46), - a circuit for operating the light sources (36, 36) for display purposes, - a connecting device for electrical connection to an external line, - wherein the circuit is connected to the connecting device and - wherein the connecting device is suitable for arranging it on a securing device for a holder on a textile machine, characterised in that the circuit is a current source circuit namely a circuit for keeping the current constant.
A compound according to Formula I wherein: R 1 and R 2 are independently H or an optionally substituted group selected from an alkyl, a heteroalkyl, an aryl, a heteroaryl, an arylalkyl, and a heteroarylalkyl, and R 3 and R 4 taken together form a carbonyl (=O); or wherein R 1 and R 2 are independently H or an optionally substituted group selected from an alkyl, a heteroalkyl, an aryl, a heteroaryl, an arylalkyl, and a heteroarylalkyl, R 3 is H and R 4 is H or - OR 5, wherein R 5 is H or an optionally substituted group selected from an alkyl, a heteroalkyl, an aryl, a heteroaryl, an arylalkyl, and a heteroarylalkyl; or a pharmaceutically acceptable salt or ester thereof for use in the treatment or prevention of acute kidney injury, R 1 and R 2 are independently H or an optionally substituted group selected from an alkyl, a heteroalkyl, an aryl, a heteroaryl, an arylalkyl, and a heteroarylalkyl, and R 3 and R 4 taken together form a carbonyl (=O); or wherein R 1 and R 2 are independently H or an optionally substituted group selected from an alkyl, a heteroalkyl, an aryl, a heteroaryl, an arylalkyl, and a heteroarylalkyl, R 3 is H and R 4 is H or - OR 5, wherein R 5 is H or an optionally substituted group selected from an alkyl, a heteroalkyl, an aryl, a heteroaryl, an arylalkyl, and a heteroarylalkyl; or a pharmaceutically acceptable salt or ester thereof for use in the treatment or prevention of acute kidney injury,
A weapon launch system for a submersible vessel, comprising: - at least one electric actuator capable of exerting a series of mechanical actions on a weapon launch tube; - actuating means for the electric actuator; - a remote control station capable of controlling the operation of the actuating means remotely via a computer network in a nominal operating mode of the system; characterized in that the system comprises: - a local control panel capable of controlling the operation of the actuating means locally via a direct control link in a fault operating mode of the system. - at least one electric actuator capable of exerting a series of mechanical actions on a weapon launch tube; - actuating means for the electric actuator; - a remote control station capable of controlling the operation of the actuating means remotely via a computer network in a nominal operating mode of the system; characterized in that the system comprises: - a local control panel capable of controlling the operation of the actuating means locally via a direct control link in a fault operating mode of the system.