mhurhangee/ep-ind-claims huggingface dataset:
A hybrid electric torpedo comprising: an igniter having a resistance of an ignition element of the igniter, a current source, and a contactor; and a controller having: input channels operable to receive a battery state of charge for a battery of the hybrid electric torpedo, and the resistance of the ignition element; and output channels configured to operate the contactor to control the current source of the igniter, the controller having stored memory instructions operable upon execution to, responsive to the battery state of charge for the battery being less than a predetermined state of charge threshold and the resistance of the ignition element being less than a predetermined open circuit threshold, operate the contactor to conduct current through the igniter such that a temperature of the ignition element of the igniter increases. an igniter having a resistance of an ignition element of the igniter, a current source, and a contactor; and a controller having: input channels operable to receive a battery state of charge for a battery of the hybrid electric torpedo, and the resistance of the ignition element; and output channels configured to operate the contactor to control the current source of the igniter, the controller having stored memory instructions operable upon execution to, responsive to the battery state of charge for the battery being less than a predetermined state of charge threshold and the resistance of the ignition element being less than a predetermined open circuit threshold, operate the contactor to conduct current through the igniter such that a temperature of the ignition element of the igniter increases. input channels operable to receive a battery state of charge for a battery of the hybrid electric torpedo, and the resistance of the ignition element; and output channels configured to operate the contactor to control the current source of the igniter, the controller having stored memory instructions operable upon execution to, responsive to the battery state of charge for the battery being less than a predetermined state of charge threshold and the resistance of the ignition element being less than a predetermined open circuit threshold, operate the contactor to conduct current through the igniter such that a temperature of the ignition element of the igniter increases.
An NMR measuring probe comprising: an inner wall body having a tubular hollow cavity that accommodates therein a sample vessel; an outer wall body in which the inner wall body is inserted and that constitutes a vacuum vessel together with the inner wall body; an NMR signal detector that is arranged inside the vacuum vessel and is configured to be cooled by a heat exchanger; and a sealing structure for sealing a sealed section between the inner wall body and the outer wall body, wherein the tubular hollow cavity is configured for being supplied with a temperature-adjustment gas, characterized in that the sealing structure includes a first sealing member and a second sealing member having different characteristics from each other, the second sealing member is provided on a vacuum side or an atmosphere side to the first sealing member in the sealed section, an embrittlement temperature of the second sealing member is lower than an embrittlement temperature of the first sealing member, the first sealing member has a lower gas permeability rate than the second sealing member within a regular temperature range of -20°C or more and the second sealing member shows less embrittlement than the first sealing member in a low temperature range equal to -40°C or less, and the first sealing member is made of a fluorinated rubber material, and the second sealing member is made of a silicone rubber material. an inner wall body having a tubular hollow cavity that accommodates therein a sample vessel; an outer wall body in which the inner wall body is inserted and that constitutes a vacuum vessel together with the inner wall body; an NMR signal detector that is arranged inside the vacuum vessel and is configured to be cooled by a heat exchanger; and a sealing structure for sealing a sealed section between the inner wall body and the outer wall body, wherein the tubular hollow cavity is configured for being supplied with a temperature-adjustment gas, characterized in that the sealing structure includes a first sealing member and a second sealing member having different characteristics from each other, the second sealing member is provided on a vacuum side or an atmosphere side to the first sealing member in the sealed section, an embrittlement temperature of the second sealing member is lower than an embrittlement temperature of the first sealing member, the first sealing member has a lower gas permeability rate than the second sealing member within a regular temperature range of -20°C or more and the second sealing member shows less embrittlement than the first sealing member in a low temperature range equal to -40°C or less, and the first sealing member is made of a fluorinated rubber material, and the second sealing member is made of a silicone rubber material.
A storage system, comprising: a plurality of storage nodes, each of the plurality of storage nodes having a plurality of storage units with storage memory, and a forwarding unit; a first network coupling each forwarding unit of the plurality of storage nodes; and a second network coupled to at least a subset of the plurality of storage units of each of the plurality of storage nodes characterized in that one of the plurality of storage units of a first one of the plurality of storage nodes is configured to initiate or relay a command to a destination storage unit of a second one of the plurality of storage nodes via the second network, through one of the storage units of the second one of the plurality of storage nodes, and to the destination storage unit via the forwarding unit of the second one of the plurality of storage nodes, without the command passing through the first network. a plurality of storage nodes, each of the plurality of storage nodes having a plurality of storage units with storage memory, and a forwarding unit; a first network coupling each forwarding unit of the plurality of storage nodes; and a second network coupled to at least a subset of the plurality of storage units of each of the plurality of storage nodes characterized in that one of the plurality of storage units of a first one of the plurality of storage nodes is configured to initiate or relay a command to a destination storage unit of a second one of the plurality of storage nodes via the second network, through one of the storage units of the second one of the plurality of storage nodes, and to the destination storage unit via the forwarding unit of the second one of the plurality of storage nodes, without the command passing through the first network.
A microbial cell which is capable of producing acetoacetate, 3-hydroxybutyrate and/or 3-hydroxybutyrate variants, wherein the cell is genetically modified to comprise an increased expression relative to its wild type cell of: - an enzyme E 1 capable of catalysing the conversion of acetyl-CoA to acetoacetyl-CoA; - an enzyme E 2 capable of catalysing the conversion of acetoacetyl-CoA to acetoacetate; and - an enzyme E 3 capable of catalysing the conversion of acetoacetate to 3-hydroxybutyrate and/or variants thereof and wherein the genetically modified cell has reduced or no expression of acetoacetate decarboxylase (Adc; EC 4.1.1.4) wherein the 3-hydroxybutyrate variant is selected from the group consisting of -3-hydroxybutyric acid, -3-hydroxybutyrate ester, -3-hydroxybutyric acid, -3-hydroxybutyrate ester, sodium 3-hydroxybutyrate, and methyl 3-hydroxybutyrate. - an enzyme E 1 capable of catalysing the conversion of acetyl-CoA to acetoacetyl-CoA; - an enzyme E 2 capable of catalysing the conversion of acetoacetyl-CoA to acetoacetate; and - an enzyme E 3 capable of catalysing the conversion of acetoacetate to 3-hydroxybutyrate and/or variants thereof and wherein the genetically modified cell has reduced or no expression of acetoacetate decarboxylase (Adc; EC 4.1.1.4)
Hand-held machine tool with a machine housing, a motor, a shaft driven by the motor, a tool holder, which is accommodated on the shaft, has an accommodation area to accommodate a tool and has a clamping jaw guided in a link projecting into the accommodation area, a carriage, which is connected to the clamping jaw and has a thread engaging in a counter thread of the shaft to form a thread drive, and an actuating element that may be moved by a user between a first position and a second position, characterised by a switchable connection, which is accommodated on the tool holder so that it may not turn and engages alternatively in the shaft or the machine housing according to the positions (26, 27) of the actuating element.
A method for reducing a carbon dioxide footprint associated with a production process, wherein the carbon dioxide footprint comprises at least an amount of carbon dioxide emitted during the production process, the method comprising: - obtaining, by a processing circuitry (102a, 102b, 102c), a parameter indicative of a selected cutting feature for production by a cutting tool (20a,20b,20c,20d); - obtaining, by the processing circuitry (102a, 102b, 102c), a parameter indicative of a selected work-piece material for production by a cutting tool (20a,20b,20c,20d); - determining, by the processing circuitry (102a, 102b, 102c), a set of cutting tools (20a,20b,20c,20d) for production based on the obtained parameters; and - determining, by the processing circuitry (102a, 102b, 102c), a cutting tool for production from the determined set of cutting tools (20a,20b,20c,20d) based on carbon dioxide emission information data associated with each cutting tool (20a,20b,20c,20d) in the determined set of cutting tools (20a,20b,20c,20d), wherein the cutting tool for production is determined by comparing the carbon dioxide emission information data for each cutting tool (20a,20b,20c,20d) in the set of tools for production, and selecting the cutting tool (20a,20b,20c,20d) with the lowest total amount of carbon dioxide emitted during the production process and during the manufacturing and/or transport of the cutting tool (20a,20b,20c,20d). - obtaining, by a processing circuitry (102a, 102b, 102c), a parameter indicative of a selected cutting feature for production by a cutting tool (20a,20b,20c,20d); - obtaining, by the processing circuitry (102a, 102b, 102c), a parameter indicative of a selected work-piece material for production by a cutting tool (20a,20b,20c,20d); - determining, by the processing circuitry (102a, 102b, 102c), a set of cutting tools (20a,20b,20c,20d) for production based on the obtained parameters; and - determining, by the processing circuitry (102a, 102b, 102c), a cutting tool for production from the determined set of cutting tools (20a,20b,20c,20d) based on carbon dioxide emission information data associated with each cutting tool (20a,20b,20c,20d) in the determined set of cutting tools (20a,20b,20c,20d), wherein the cutting tool for production is determined by comparing the carbon dioxide emission information data for each cutting tool (20a,20b,20c,20d) in the set of tools for production, and selecting the cutting tool (20a,20b,20c,20d) with the lowest total amount of carbon dioxide emitted during the production process and during the manufacturing and/or transport of the cutting tool (20a,20b,20c,20d).
A procedure for adjusting the composition of an electrolyte in a system comprising a fuel cell adapted for reacting hydrogen (H 2) and oxygen (O 2) molecules, to produce water and electricity, - said electrolyte being a solution having water as a solvent and NaOH or KOH as a solute, - said system comprising at least one reaction chamber which uses said electrolyte, - said reaction chamber being an electrolyser, able to create oxygen (O 2) and hydrogen (H 2) molecules by hydrolysis of water molecules, or a fuel cell. adapted for reacting hydrogen (H 2) and oxygen (O 2) molecules, to produce water and electricity, - said adjusting procedure comprising: - a step of measuring the concentration of the solute in said electrolyte, and - a pre-mixing in water of said solute in the solid state in a mixing tank separate from said reaction chamber, with consequent dissolution of said solute and provision of a replenishing solution, - a subsequent introduction of said replenishment solution into said reaction chamber. - said electrolyte being a solution having water as a solvent and NaOH or KOH as a solute, - said system comprising at least one reaction chamber which uses said electrolyte, - said reaction chamber being an electrolyser, able to create oxygen (O 2) and hydrogen (H 2) molecules by hydrolysis of water molecules, or a fuel cell. adapted for reacting hydrogen (H 2) and oxygen (O 2) molecules, to produce water and electricity, - said adjusting procedure comprising: - a step of measuring the concentration of the solute in said electrolyte, and - a pre-mixing in water of said solute in the solid state in a mixing tank separate from said reaction chamber, with consequent dissolution of said solute and provision of a replenishing solution, - a subsequent introduction of said replenishment solution into said reaction chamber. - a step of measuring the concentration of the solute in said electrolyte, and - a pre-mixing in water of said solute in the solid state in a mixing tank separate from said reaction chamber, with consequent dissolution of said solute and provision of a replenishing solution, - a subsequent introduction of said replenishment solution into said reaction chamber. - a pre-mixing in water of said solute in the solid state in a mixing tank separate from said reaction chamber, with consequent dissolution of said solute and provision of a replenishing solution, - a subsequent introduction of said replenishment solution into said reaction chamber.
A sowing element for pneumatic precision seed drills, comprising a gasket interposed between a stationary surface of a pneumatic manifold and a rotating surface of a disc distributor, the gasket comprising a central portion which is partially peripherally surmounted by a sealing sector in which an annular passage opens, fastening means (28, 29) for the gasket being provided between the central portion of the gasket and the manifold of the sowing element, wherein the central portion comprises a first and a second flange (21, 22) which are interconnected in offset planes, the first flange being interposed between the second flange and the sealing sector, the fastening means (28, 29) being provided between the second flange and the manifold wherein the first and second flange (21, 22) are in offset parallel planes, the planes of the first and second flange (21, 22) being offset at increasing distances from a sealing surface (30a, b) of the sealing sector and wherein said first and second flange (21, 22) are connected to each other by a conical portion, characterised in that said first flange connects said sealing sector to said conical portion and contacts said sealing sector and said conical portion at radially opposing sides.
A static random access memory SRAM memory cell, comprising: a storage element; a write circuit comprising a write word line coupled to the storage element, the write word line being adapted to be coupled to a first potential; and a separate read circuit coupled to the storage element; wherein: at least a portion of the storage element and at least a portion of the write circuit are fabricated using a relatively thick functional gate oxide and at least a portion of the read circuit is fabricated using a relatively thin functional gate oxide; and the relatively thick functional gate oxide provides lower leakage than the relatively thin functional gate oxide; characterised in that the read circuit, the storage element and a portion of the write circuit other than the write word line are adapted to be coupled to a second potential that differs from the first potential, the second potential being adapted to be actively varied, wherein said first potential is higher than said second potential, said second potential being larger than 0 volts, and wherein said second potential is adpated to be actively varied in response to a mode of operation of a device incorporating the SRAM memory cell. a storage element; a write circuit comprising a write word line coupled to the storage element, the write word line being adapted to be coupled to a first potential; and a separate read circuit coupled to the storage element; wherein: at least a portion of the storage element and at least a portion of the write circuit are fabricated using a relatively thick functional gate oxide and at least a portion of the read circuit is fabricated using a relatively thin functional gate oxide; and the relatively thick functional gate oxide provides lower leakage than the relatively thin functional gate oxide; at least a portion of the storage element and at least a portion of the write circuit are fabricated using a relatively thick functional gate oxide and at least a portion of the read circuit is fabricated using a relatively thin functional gate oxide; and the relatively thick functional gate oxide provides lower leakage than the relatively thin functional gate oxide; characterised in that the read circuit, the storage element and a portion of the write circuit other than the write word line are adapted to be coupled to a second potential that differs from the first potential, the second potential being adapted to be actively varied, wherein said first potential is higher than said second potential, said second potential being larger than 0 volts, and wherein said second potential is adpated to be actively varied in response to a mode of operation of a device incorporating the SRAM memory cell.
A method of measuring a fluid parameter of a fluid within a fluid containment vessel, the method including: mounting a first multi-sensor assembly to a fluid containment vessel, the first multi-sensor assembly having two or more multi-sensor pairs located at consecutive heights of the fluid containment vessel, wherein each of the two or more multi-sensor pairs are stacked above each other and spaced apart at successive elevations along the height of the fluid containment vessel, each of the two or more multi-sensor pairs having a first ultrasonic sensor and an opposite second ultrasonic sensor, each of the two or more multi-sensor pairs being in communication with a single transmitter assembly; sending a signal from the first ultrasonic sensor towards the second ultrasonic sensor of the two or more multi-sensor pairs; measuring a transit time for the signal to pass between the first ultrasonic sensor and the second ultrasonic sensor; and comparing the transit time of adjacent multi-sensor pairs to identify a fluid boundary within the fluid containment vessel. mounting a first multi-sensor assembly to a fluid containment vessel, the first multi-sensor assembly having two or more multi-sensor pairs located at consecutive heights of the fluid containment vessel, wherein each of the two or more multi-sensor pairs are stacked above each other and spaced apart at successive elevations along the height of the fluid containment vessel, each of the two or more multi-sensor pairs having a first ultrasonic sensor and an opposite second ultrasonic sensor, each of the two or more multi-sensor pairs being in communication with a single transmitter assembly; sending a signal from the first ultrasonic sensor towards the second ultrasonic sensor of the two or more multi-sensor pairs; measuring a transit time for the signal to pass between the first ultrasonic sensor and the second ultrasonic sensor; and comparing the transit time of adjacent multi-sensor pairs to identify a fluid boundary within the fluid containment vessel.
A compound having the formula: or a pharmaceutically acceptable salt thereof for use in a method of treating locally advanced or metastatic solid tumors; wherein the locally advanced or metastatic solid tumors are castration-recurrent prostate cancer (CRPC); and wherein the method comprises administering the compound to a patient in need of such treatment, in combination with atezolizumab.
A method for limiting setpoint values in a field-oriented current regulation of a multi-phase permanent magnet synchronous machine, wherein the method has the steps of: determining current strengths for individual stator phases (31, 32, 33) of the multi-phase permanent magnet synchronous machine; performing a Park transform of the determined current strengths on a two-dimensional Park coordinate system (d, q) in order to obtain the current components ld and Iq; separately determining the setpoint values (11, 12) for the voltage components Uqr and Udr, which are setpoint variables for the current components lq and ld; reverse transforming the voltage components Uqr and Udr to corresponding multi-phase voltage values; and applying the determined multi-phase voltage values to corresponding stator phases (31, 32, 33); characterised in that if the currently available maximum voltage is not sufficient, the setpoint values for the setpoint variables Uqr and Udr are limited depending on the operating point in such a way that that one of the voltage components Uqr, Udr is prioritised whose corresponding component of the induced voltage Uq ind, Ud ind drives the current most strongly away from a short-circuit current point, the short-circuit current point is the point in the two-dimensional Park coordinate system (d, q) which corresponds to a short-circuit current, and prioritising of a voltage component means that the prioritised voltage component, limited in absolute value by the currently available maximum voltage, receives the value required for current regulation, at the expense of the respective other voltage component. determining current strengths for individual stator phases (31, 32, 33) of the multi-phase permanent magnet synchronous machine; performing a Park transform of the determined current strengths on a two-dimensional Park coordinate system (d, q) in order to obtain the current components ld and Iq; separately determining the setpoint values (11, 12) for the voltage components Uqr and Udr, which are setpoint variables for the current components lq and ld; reverse transforming the voltage components Uqr and Udr to corresponding multi-phase voltage values; and applying the determined multi-phase voltage values to corresponding stator phases (31, 32, 33); characterised in that if the currently available maximum voltage is not sufficient, the setpoint values for the setpoint variables Uqr and Udr are limited depending on the operating point in such a way that that one of the voltage components Uqr, Udr is prioritised whose corresponding component of the induced voltage Uq ind, Ud ind drives the current most strongly away from a short-circuit current point, the short-circuit current point is the point in the two-dimensional Park coordinate system (d, q) which corresponds to a short-circuit current, and prioritising of a voltage component means that the prioritised voltage component, limited in absolute value by the currently available maximum voltage, receives the value required for current regulation, at the expense of the respective other voltage component.