mhurhangee/ep-ind-claims huggingface dataset:
A voltage sensing assembly for sensing voltage of battery cells, each having electrode terminals (222, 232) formed at an upper or lower end thereof, in a state in which the voltage sensing assembly is mounted to a battery module, the voltage sensing assembly comprising: (a) a block case formed of an electrically insulating material, (b) wires connected respectively to voltage sensing terminals (342, 346), each of the voltage sensing terminals (342, 346) extending from an upper or lower end of a corresponding one of bus bars electrically connected to the electrode terminal connection parts of the battery cells; and (c) a connector that transmits detected voltages of the wires to a controller, wherein the block case comprises a fastening member that protrudes forward from the block case to securely fix the wires, and the wires are connected to the voltage sensing terminals of the bus bars in a state in which the wires are mounted to the fastening member of the block case, characterized in that the block case is mounted, horizontally within a space between electrode terminal connection parts of the battery cells, to the front or rear of the battery module, each of the bus bars comprises a plate-shaped body, which is bent perpendicularly at opposite lateral ends thereof such that the plate-shaped body is electrically connected to electrode terminal connection parts of corresponding battery cells, and one of said voltage sensing terminals, wherein each of the voltage sensing terminals has a clamping structure in which one of said wires is to be inserted, and each of the voltage sensing terminals is formed at an upper or lower end of the plate-shaped body. (a) a block case formed of an electrically insulating material, (b) wires connected respectively to voltage sensing terminals (342, 346), each of the voltage sensing terminals (342, 346) extending from an upper or lower end of a corresponding one of bus bars electrically connected to the electrode terminal connection parts of the battery cells; and (c) a connector that transmits detected voltages of the wires to a controller,
ACOUSTIC FILTER FOR COMPRESSOR comprising: an inlet duct, an outlet duct and at least one main chamber, wherein the inlet duct comprises a refrigerant fluid inlet and a refrigerant fluid delivery end, wherein the refrigerant fluid delivery end is opposite to said refrigerant fluid inlet and it is capable of guiding the refrigerant fluid to the main chamber; the outlet duct comprises a refrigerant fluid outlet and a refrigerant fluid collection end, wherein the refrigerant fluid collection end is opposite to said a refrigerant fluid outlet and it is capable of guiding the refrigerant fluid from the main chamber to said fluid outlet, the filter comprising a resonator chamber arranged adjacent to and separated from the main chamber by means of a wall, and being CHARACTERIZED by the fact that said resonator chamber is arranged adjacent to the inlet duct, wherein the resonator chamber and the inlet duct are fluidically connected by means of at least one resonator tube (10A, 10B, 10C), said wall separating the resonator chamber from the main chamber being a sealing wall. an inlet duct, an outlet duct and at least one main chamber, wherein the inlet duct comprises a refrigerant fluid inlet and a refrigerant fluid delivery end, wherein the refrigerant fluid delivery end is opposite to said refrigerant fluid inlet and it is capable of guiding the refrigerant fluid to the main chamber; the outlet duct comprises a refrigerant fluid outlet and a refrigerant fluid collection end, wherein the refrigerant fluid collection end is opposite to said a refrigerant fluid outlet and it is capable of guiding the refrigerant fluid from the main chamber to said fluid outlet, the filter comprising a resonator chamber arranged adjacent to and separated from the main chamber by means of a wall, and being CHARACTERIZED by the fact that said resonator chamber is arranged adjacent to the inlet duct, wherein the resonator chamber and the inlet duct are fluidically connected by means of at least one resonator tube (10A, 10B, 10C), said wall separating the resonator chamber from the main chamber being a sealing wall.
Method for power-saving operation of communication terminals (12, 14) in a wireless communication system, wherein a user input is taken by a control centre of the communication system as a basis for prompting a change of an operating state of the communication terminals (12, 14) of the communication system, which operating state is characterized by the power consumption, characterized in that the control centre uses a communication protocol to send messages to the communication terminals (12, 14), wherein there is, in the communication protocol, a status bit provided in a protocol header, wherein this status bit characterizes whether the communication terminals (12, 14), in the idle state, are meant to be in standby as an operating state or in the normal operation operating state, and in that the communication terminals (12, 14), in the standby operating state, check at regular intervals whether they are meant to continue to remain in this operating state by virtue of the communication terminals (12, 14) reading the status bit of the protocol header.
A rechargeable battery comprising: one or more electrochemical cells; at least one negative terminal and at least one positive terminal forming a first internal resistance (R 1) over a temperature range of the battery between a first temperature (T 1) and a second temperature (T 2); at least one high resistance terminal electrically connected to at least one resistor sheet within a cell of the battery or between cells of the battery forming a second internal resistance (R 2), R 2 being higher than R 1; and a switch configured to electrically connect or disconnect the at least one high resistance terminal with either the at least one positive terminal or the at least one negative terminal to activate R 2 when the temperature of the battery is outside the range of T 1 - T 2. one or more electrochemical cells; at least one negative terminal and at least one positive terminal forming a first internal resistance (R 1) over a temperature range of the battery between a first temperature (T 1) and a second temperature (T 2); at least one high resistance terminal electrically connected to at least one resistor sheet within a cell of the battery or between cells of the battery forming a second internal resistance (R 2), R 2 being higher than R 1; and a switch configured to electrically connect or disconnect the at least one high resistance terminal with either the at least one positive terminal or the at least one negative terminal to activate R 2 when the temperature of the battery is outside the range of T 1 - T 2.
A method for stabilising fatty acids, the method comprising applying the fatty acids, or a sample comprising the fatty acids, to a solid medium comprising a solid matrix, at least one chelating agent and at least one antioxidant, wherein the solid matrix comprises less than about 2 μg/cm 2 of one or more contaminants, less than about 1 μg/cm 2 of said one or more contaminants or less than about 0.5 μg/cm 2 of said one or more contaminants, and wherein: the at least one chelating agent is selected from the group consisting of EDTA, ethyleneglycol-O,O'-bis(2-aminoethyl)-N,N,N',N'-tetraacetic acid (EGTA) triethanolamine, salicyclic acid, diethylenetriaminepentaacetic acid, diethylenetriamine-N,N,N',N',N"-pentaacetic acid, N,N-Bis(2-(bis-(carboxymethyl)amino)ethyl)-glycine, diethylenetriamine pentaacetic acid, [[(Carboxymethyl)imino]bis(ethylenenitrilo)]-tetra-acetic acid, N,N-bis(carboxymethyl)glycine, triglycollamic acid, Trilone A, a, a', a"-trimethylaminetricarboxylic acid, tri(carboxymethyl)amine, aminotriacetic acid, Hampshire NTA acid, nitrilo-2,2',2"-triacetic acid, Titriplex I, Nitrilotriacetic acid and deferoxamine; the at least one antioxidant is selected from the group consisting of resveratrol, tbutylhydroquinone, butylated hydroxytoluene, butylated hydroxyanisole, citric acid, citrate, ascorbic acid, ascorbate, flavanoids and antioxidant plant extracts; and the one or more contaminants are selected from the group consisting of saturated fatty acids, esters of saturated fatty acids, resin acids and esters of resin acids, which find their way into the paper during production, and wherein the solid matrix is a paper-based solid matrix. the at least one antioxidant is selected from the group consisting of resveratrol, tbutylhydroquinone, butylated hydroxytoluene, butylated hydroxyanisole, citric acid, citrate, ascorbic acid, ascorbate, flavanoids and antioxidant plant extracts; and the one or more contaminants are selected from the group consisting of saturated fatty acids, esters of saturated fatty acids, resin acids and esters of resin acids, which find their way into the paper during production, and wherein the solid matrix is a paper-based solid matrix.
A method for pattern recognition, comprising: receiving data; processing the data with a trained convolutional neural network so as to recognize a pattern in the data, wherein the trained convolutional neural network comprises at least: an input layer, at least one convolutional layer, at least one batch normalization layer, a histogram specification layer, at least one activation function layer, and an output layer; and wherein processing the data with the trained convolutional neural network so as to recognize a pattern in the data comprises: processing, by the histogram specification layer, values outputted by the batch normalization layer by performing histogram equalization, a nd outputting, by the histogram specification layer, the processed values to the activation function layer. receiving data; processing the data with a trained convolutional neural network so as to recognize a pattern in the data, wherein the trained convolutional neural network comprises at least: an input layer, at least one convolutional layer, at least one batch normalization layer, a histogram specification layer, at least one activation function layer, and an output layer; and wherein processing the data with the trained convolutional neural network so as to recognize a pattern in the data comprises: processing, by the histogram specification layer, values outputted by the batch normalization layer by performing histogram equalization, a nd outputting, by the histogram specification layer, the processed values to the activation function layer. processing, by the histogram specification layer, values outputted by the batch normalization layer by performing histogram equalization, a nd outputting, by the histogram specification layer, the processed values to the activation function layer.
A processor architecture arrangement for emulated shared memory, ESM, architectures, comprising a plurality of processors which are multi-threaded utilizing a Tp -stage cyclic, interleaved inter-thread pipeline (400, 500), where Tp > the average latency of the network, wherein during a step of multi-threaded execution, each thread of each processor executes an instruction including at most one shared memory reference sub-instruction, a step therefore lasting for multiple, at least Tp+1 clock cycles, and wherein a set of threads are being executed in interleaved manner, and as a thread makes a memory reference to a common physically distributed and logically shared data memory of the ESM architecture, the executed thread is changed and a next thread is enabled to make its memory request, wherein the pipeline (400, 500) comprises a processing path comprising a memory access segment and at least one other processing path comprising a plurality of functional units (402, 402b, 402c, 502a, 502b) arranged in series for executing arithmetic, logical and optionally further operations on data, wherein one or more functional units of lower latency belonging to said plurality of functional units are arranged operatively, including temporally, prior to the memory access segment in said pipeline, characterized in that one or more long latency units belonging to said plurality of functional units (402b, 502a) for executing more complex operations associated with longer latency are arranged operatively, including temporally, in parallel with the memory access segment so that the more complex operations associated with longer latency are executed simultaneously with the memory access operation and wherein the memory access operation is independent of the executed more complex operations associated with the longer latency.
A pneumatic tire for use on trucks, the tire comprising a tread and a belt structure located radially inward of the tread, the belt structure including a first working belt and a second working belt, wherein the angle of the first and second working belts (54, 56) each range from 10 degrees to 50 degrees as measured relative to the circumferential direction of the tire, and wherein the angle of the first working belt is greater than the angle of the second working belt, wherein the belt structure further comprises a relatively low angle belt having reinforcements angled at less than 5 degrees relative to the circumferential direction of the tire, wherein the relatively low angle belt has extensible reinforcement cords, i. e. cords having a relative elongation of greater than 0.2% at 10% of the breaking load, when measured from a cord extracted from a cured tire, characterized in that the tire further includes a radially outermost top protector belt comprising reinforcement cords having an impact energy absorption of > 7.5 J/mm 2 measured using a Charpy Impact Tester in a 2.54 cm strip with 10 ends per 2.54 cm, and wherein the rubber penetration at the outer lateral ends of the relatively low angle belt is greater than the rubber penetration at a central portion of the relatively low angle belt.
A method for operating a thermoforming machine for forming items from plastic, the thermoforming machine comprising an at least two-part mould and at least one moulding air tank, in which moulding air is maintained at a pressure (p 0), moulding air being introduced into the mould in an open-loop controlled or closed-loop controlled manner from the moulding air tank to shape the items, characterized in that the moulding air is introduced into the mould such that the pressure of the moulding air (p 1) in the mould is less than the pressure (p 0) in the moulding air tank, wherein at least one valve (4, 5) and a pressure sensor connected to an open-loop or closed-loop control device are arranged in a gas line (9', 9") between the moulding air tank and the mould, wherein the at least one valve (4, 5) controlled by the open-loop or closed-loop control device allows three different modes, namely - for filling the mould with moulding air from the moulding air tank, the production of a fluidic connection between the moulding air tank and the mould; - for maintaining the pressure of the moulding air in the mould, a fluidic interruption of the gas line (9") leading into the mould; - for venting the pressure of the moulding air from the mould, the production of a fluidic connection of the gas line (9") leading into the mould to the surroundings, wherein the gas line coming from the moulding air tank is fluidically interrupted at the same time. - for filling the mould with moulding air from the moulding air tank, the production of a fluidic connection between the moulding air tank and the mould; - for maintaining the pressure of the moulding air in the mould, a fluidic interruption of the gas line (9") leading into the mould; - for venting the pressure of the moulding air from the mould, the production of a fluidic connection of the gas line (9") leading into the mould to the surroundings, wherein the gas line coming from the moulding air tank is fluidically interrupted at the same time.
Process for the fabrication of galvanized metallic flat material provided with openings, comprising the following process steps: a) punching the openings (2.1, 2.2, 2.3) into the flat material; b) then galvanizing the flat material in a through-feed process; and c) cutting off the flat material to the desired length; toothing being rolled on to the flat material after the flat material has been galvanized. a) punching the openings (2.1, 2.2, 2.3) into the flat material; b) then galvanizing the flat material in a through-feed process; and c) cutting off the flat material to the desired length; toothing being rolled on to the flat material after the flat material has been galvanized.
A system comprising: at least one processor and memory configured to: use a computational model of at least one neuron to determine one or more non-regular temporal patterns among a plurality of non-regular temporal patterns that results in a neuronal output and stimulation activity providing a lowest neuronal output for efficacy optimization and a lowest stimulation activity for efficiency optimization among the plurality of non-regular temporal patterns; and control a pulse generator and one or more electrodes to administer to a subject spinal cord stimulation based on the determined one or more of the non-regular temporal patterns. at least one processor and memory configured to: use a computational model of at least one neuron to determine one or more non-regular temporal patterns among a plurality of non-regular temporal patterns that results in a neuronal output and stimulation activity providing a lowest neuronal output for efficacy optimization and a lowest stimulation activity for efficiency optimization among the plurality of non-regular temporal patterns; and control a pulse generator and one or more electrodes to administer to a subject spinal cord stimulation based on the determined one or more of the non-regular temporal patterns. use a computational model of at least one neuron to determine one or more non-regular temporal patterns among a plurality of non-regular temporal patterns that results in a neuronal output and stimulation activity providing a lowest neuronal output for efficacy optimization and a lowest stimulation activity for efficiency optimization among the plurality of non-regular temporal patterns; and control a pulse generator and one or more electrodes to administer to a subject spinal cord stimulation based on the determined one or more of the non-regular temporal patterns.
A method of designing a multistage turbine for a turbomachine, each stage of the turbine comprising a stator row and a rotor row, each formed by an annular row of airfoils, each stator (or rotor, respectively) row having the same number of airfoils or a number that is a multiple of the number of airfoils of a row of the same type situated upstream, wherein the method consists, for all of the stator or rotor rows: a) in modifying simultaneously the shape of the airfoils (16,20) of the various rows to straighten out the wakes from the trailing edges of said airfoils over substantially the entire radial extent of the airfoils; and then b) in angularly positioning the rows (12,14) relative to one another in such a manner that the wakes from the stator (or rotor, respectively) rows of a stage n impact within a certain angular tolerance on the leading edges of the stator (or rotor, respectively) rows of a downstream stage n+1, so as to achieve multistage aerodynamic coupling simultaneously over the turbine as a whole. a) in modifying simultaneously the shape of the airfoils (16,20) of the various rows to straighten out the wakes from the trailing edges of said airfoils over substantially the entire radial extent of the airfoils; and then b) in angularly positioning the rows (12,14) relative to one another in such a manner that the wakes from the stator (or rotor, respectively) rows of a stage n impact within a certain angular tolerance on the leading edges of the stator (or rotor, respectively) rows of a downstream stage n+1, so as to achieve multistage aerodynamic coupling simultaneously over the turbine as a whole.
A polymerizable composition comprising an alkyne compound represented by the following general formula: wherein, in general formula, X 1 and X 2 represent a sulfur atom, an oxygen atom, or an NH group and may be the same or different from each other, Q represents an alkylene group having 1 or 2 carbon atoms, a carbonyl group, or a thiophenylene group in which one of carbon atoms is substituted by an antimony atom, R 1 and R 2 represent an alkylene group having 1 or 2 carbon atoms and may be the same or different from each other, and m and n each represent 0 or 1; and a thiol compound. wherein, in general formula, X 1 and X 2 represent a sulfur atom, an oxygen atom, or an NH group and may be the same or different from each other, Q represents an alkylene group having 1 or 2 carbon atoms, a carbonyl group, or a thiophenylene group in which one of carbon atoms is substituted by an antimony atom, R 1 and R 2 represent an alkylene group having 1 or 2 carbon atoms and may be the same or different from each other, and m and n each represent 0 or 1; and a thiol compound.
An air pollution control system (10, 10A, 10B, 10C, 10D, 10E, 10F, 10G, 10H) comprising: NO x removal equipment for removing nitrogen oxides from flue gas from a boiler; a dry type electric dust collector for removing particulates from the flue gas; SO x removal equipment for removing sulfur oxides from the flue gas from a boiler; a cooler which is provided downstream of the SO x removal equipment, for removing sulfur oxides that remain in the flue gas and for decreasing a temperature of the flue gas; CO 2 recovery equipment including: a CO 2 absorber for bringing CO 2 in the flue gas into contact with a CO 2 absorption liquid so as to remove CO 2 from the flue gas, and an absorption liquid regenerator for causing the CO 2 absorption liquid to emit CO 2 so as to recover CO 2 and regenerate the CO 2 absorption liquid; the air pollution control system (10, 10A, 10B, 10C) being characterized in that it also comprises: mist generation material removal equipment, upstream of the CO 2 recovery equipment, for removing a mist generation material from the flue gas before introducing the flue gas to the CO 2 recovery equipment, the mist generation material being SO 3 which can become a source of mist generation in the absorber of the CO 2 recovery equipment, and the mist generation material removal equipment being a sodium bisulfite injection equipment for injecting sodium bisulfite between the NO x removal equipment and the electric dust collector for removing the mist generation material in a gas state from the flue gas. NO x removal equipment for removing nitrogen oxides from flue gas from a boiler; a dry type electric dust collector for removing particulates from the flue gas; SO x removal equipment for removing sulfur oxides from the flue gas from a boiler; a cooler which is provided downstream of the SO x removal equipment, for removing sulfur oxides that remain in the flue gas and for decreasing a temperature of the flue gas; CO 2 recovery equipment including: a CO 2 absorber for bringing CO 2 in the flue gas into contact with a CO 2 absorption liquid so as to remove CO 2 from the flue gas, and an absorption liquid regenerator for causing the CO 2 absorption liquid to emit CO 2 so as to recover CO 2 and regenerate the CO 2 absorption liquid; a CO 2 absorber for bringing CO 2 in the flue gas into contact with a CO 2 absorption liquid so as to remove CO 2 from the flue gas, and an absorption liquid regenerator for causing the CO 2 absorption liquid to emit CO 2 so as to recover CO 2 and regenerate the CO 2 absorption liquid;
Ablative material for thermal protection of a surface, based on cork having a density of between 0.2 and 0.45, produced from a mixture that comprises cork granules and a resin that forms a binder and suitable for forming a crust upon exposure to a heat flux, characterized in that the proportion of resin in the material is from 20% to 30% by weight of phenolic resin or from 20% to 35% by weight of epoxy resin, said material comprising from 12% to 18% by weight of short carbon or alumina fibres.