mhurhangee/patent-ind-claim-en huggingface dataset:
An electric vehicle battery system, comprising: a battery pack comprising a first battery and a second battery ; a first bidirectional direct current to alternating current (DC-AC) converter electrically coupled to the first battery , and to a first bidirectional high-voltage (HV) alternating current to direct current (AC-DC) converter and a first bidirectional low-voltage (LV) AC-DC converter ; a second bidirectional DC-AC converter coupled to the second battery , and to a second bidirectional HV AC-DC converter and a second bidirectional LV AC-DC converter ; and a power factor correction AC-DC module electrically coupled to the first bidirectional HV AC-DC converter ; a first LV output connected to the first bidirectional LV AC-DC converter and a second LV output connected to the second bidirectional LV AC-DC converter , wherein the second battery powers the first LV output using the first bidirectional HV AC-DC converter and the second bidirectional HV AC-DC converter ; characterized in that the electric vehicle battery system further comprises: a third LV output electrically coupled to the first LV output via a third switch and the second LV output via a fourth switch ; wherein the third LV output draws current from the first battery until a first voltage of the first battery equals a second voltage of the second battery . a battery pack comprising a first battery and a second battery ; a first bidirectional direct current to alternating current (DC-AC) converter electrically coupled to the first battery , and to a first bidirectional high-voltage (HV) alternating current to direct current (AC-DC) converter and a first bidirectional low-voltage (LV) AC-DC converter ; a second bidirectional DC-AC converter coupled to the second battery , and to a second bidirectional HV AC-DC converter and a second bidirectional LV AC-DC converter ; and a power factor correction AC-DC module electrically coupled to the first bidirectional HV AC-DC converter ; a first LV output connected to the first bidirectional LV AC-DC converter and a second LV output connected to the second bidirectional LV AC-DC converter , wherein the second battery powers the first LV output using the first bidirectional HV AC-DC converter and the second bidirectional HV AC-DC converter ; characterized in that the electric vehicle battery system further comprises: a third LV output electrically coupled to the first LV output via a third switch and the second LV output via a fourth switch ;
A cold stamping device for producing shaped consumable goods from a food mass, in particular a fat mass, preferably a cocoa-containing and/or chocolate-like fat mass, comprising at least one stamp plate with at least one stamp , and at least one thermal block which has a main body with at least one chamber for conducting a, in particular liquid, tempering medium, the thermal block having at least one inlet opening and at least one outlet opening , which are connected to the chamber in a fluid-conducting manner, the stamp plate comprising a preferably planar contact surface , and the contact surface can be brought into heat-conducting contact with a heat exchange surface of the thermal block , characterized in that the chamber comprises at least one inflow channel and at least one return channel , and the inflow channel is arranged closer to the heat exchange surface than the return channel , the chamber is arranged such that the tempering medium flows from the inlet opening to the outlet opening first through the feed channel and then through the return channel . at least one stamp plate with at least one stamp , and at least one thermal block which has a main body with at least one chamber for conducting a, in particular liquid, tempering medium, the thermal block having at least one inlet opening and at least one outlet opening , which are connected to the chamber in a fluid-conducting manner, the stamp plate comprising a preferably planar contact surface , and the contact surface can be brought into heat-conducting contact with a heat exchange surface of the thermal block , characterized in that the chamber comprises at least one inflow channel and at least one return channel , and the inflow channel is arranged closer to the heat exchange surface than the return channel , the chamber is arranged such that the tempering medium flows from the inlet opening to the outlet opening first through the feed channel and then through the return channel .
An accelerated method of pickling fresh produce, the method comprising the steps of: a) exposing at least a portion of the internal flesh of the fresh produce, wherein the internal flesh of the fresh produce is exposed by at least one of cutting, slicing, dicing and piercing the fresh produce; b) adding the cut, sliced, diced or pierced fresh produce to a fermentation container containing a fermentation brine solution consisting essentially of (i) water; (ii) a pickling fermentation culture, (iii) calcium chloride in an amount of 0.5% to 2.0% on w/w basis of the water; and (iv) a yeast and mold inhibitor; and optionally (v) herbs and spices, such that the brine fermentation solution includes calcium chloride as the only brining ingredient; c) fermenting the cut, sliced, diced or pierced fresh produce in the fermentation brine solution, maintaining the solution at a temperature of 25 degrees C to 35 degrees C, for a period of time sufficient to pickle the fresh produce, wherein the pickling is complete within 5 days, wherein the yeast and mold inhibitor acts to inhibit yeast and mold during the pickling method, and wherein the method comprises the additional step of water washing the fresh produce once the flesh is exposed, and prior to the fermentation step b), for a time sufficient to allow for a reduction in the sugars present in the fresh produce. a) exposing at least a portion of the internal flesh of the fresh produce, wherein the internal flesh of the fresh produce is exposed by at least one of cutting, slicing, dicing and piercing the fresh produce; b) adding the cut, sliced, diced or pierced fresh produce to a fermentation container containing a fermentation brine solution consisting essentially of (i) water; (ii) a pickling fermentation culture, (iii) calcium chloride in an amount of 0.5% to 2.0% on w/w basis of the water; and (iv) a yeast and mold inhibitor; and optionally (v) herbs and spices, such that the brine fermentation solution includes calcium chloride as the only brining ingredient; c) fermenting the cut, sliced, diced or pierced fresh produce in the fermentation brine solution, maintaining the solution at a temperature of 25 degrees C to 35 degrees C, for a period of time sufficient to pickle the fresh produce, wherein the pickling is complete within 5 days,
An information processing device comprising: an acquisition unit configured to acquire detection results of a sensor unit composed of a plurality of sensors including a first sensor having a predetermined detection range, and a second sensor having a range in a detection range thereof in which detection by the first sensor is not possible, and an estimation unit configured to estimate a detected value of the first sensor outside the predetermined detection range on the basis of detection results of the second sensor, wherein the first sensor is a pressure distribution sensor (35, 35-1, 35-2) and the second sensor is a force sensor , wherein the sensor unit is formed by stacking a plurality of sensors, and characterized in that the estimation unit is configured to estimate a detected value of the first sensor outside the predetermined detection range by interpolation according to the detection result of the second sensor; or the estimation unit is configured to estimate a detected value of the first sensor outside the predetermined detection range using a prediction model that receives a detected value of the first sensor and a detected value of the second sensor as inputs and outputs a detected value of the first sensor outside the predetermined detection range. an acquisition unit configured to acquire detection results of a sensor unit composed of a plurality of sensors including a first sensor having a predetermined detection range, and a second sensor having a range in a detection range thereof in which detection by the first sensor is not possible, and an estimation unit configured to estimate a detected value of the first sensor outside the predetermined detection range on the basis of detection results of the second sensor, wherein the first sensor is a pressure distribution sensor (35, 35-1, 35-2) and the second sensor is a force sensor , wherein the sensor unit is formed by stacking a plurality of sensors, and characterized in that the estimation unit is configured to estimate a detected value of the first sensor outside the predetermined detection range by interpolation according to the detection result of the second sensor; or the estimation unit is configured to estimate a detected value of the first sensor outside the predetermined detection range using a prediction model that receives a detected value of the first sensor and a detected value of the second sensor as inputs and outputs a detected value of the first sensor outside the predetermined detection range.
A method for power allocation for a user equipment, UE, the method comprising: identifying that the UE is configured to communicate with a plurality of carrier aggregation, CA, groups with at least a first cell group, CG1, and a second cell group, CG2, wherein CG1 comprises a first plurality of cells associated with a first eNodeB, and CG2 comprises a second plurality of cells associated with a second eNodeB; determining whether the UE is power-limited; determining whether a first uplink control information, UCI, to be transmitted in a sub frame i on a first uplink channel in a cell of the CG1 is acknowledgement information and a second UCI to be transmitted in the subframe i on a second uplink channel in a cell of the CG2 is information other than acknowledgement information; responsive to determining that the UE being power-limited, the first UCI is acknowledgement information, prioritizing the first uplink channel than the second uplink channel for power allocation; transmitting the first UCI on the first uplink channel in the cell of the CG1 and transmitting the second UCI on the second uplink channel in the cell of the CG2 at a reduced power based on the prioritizing result; wherein the first uplink channel is one of a physical uplink shared channel, PUSCH, and a physical uplink control channel, PUCCH, and the second uplink channel is one of the PUSCH and the PUCCH; wherein the first uplink channel is prioritized over the second uplink channel regardless of whether the first uplink channel is a PUSCH or a PUCCH. identifying that the UE is configured to communicate with a plurality of carrier aggregation, CA, groups with at least a first cell group, CG1, and a second cell group, CG2, wherein CG1 comprises a first plurality of cells associated with a first eNodeB, and CG2 comprises a second plurality of cells associated with a second eNodeB; determining whether the UE is power-limited; determining whether a first uplink control information, UCI, to be transmitted in a sub frame i on a first uplink channel in a cell of the CG1 is acknowledgement information and a second UCI to be transmitted in the subframe i on a second uplink channel in a cell of the CG2 is information other than acknowledgement information; responsive to determining that the UE being power-limited, the first UCI is acknowledgement information, prioritizing the first uplink channel than the second uplink channel for power allocation; transmitting the first UCI on the first uplink channel in the cell of the CG1 and transmitting the second UCI on the second uplink channel in the cell of the CG2 at a reduced power based on the prioritizing result; wherein the first uplink channel is one of a physical uplink shared channel, PUSCH, and a physical uplink control channel, PUCCH, and the second uplink channel is one of the PUSCH and the PUCCH; wherein the first uplink channel is prioritized over the second uplink channel regardless of whether the first uplink channel is a PUSCH or a PUCCH.
A method for producing a sintered joint between a ceramic substrate and a carrier , the ceramic substrate comprising a ceramic layer , a first substrate metallization layer attached to the ceramic layer and a second substrate metallization layer attached to the ceramic layer , the ceramic layer disposed between the first substrate metallization layer and the second substrate metallization layer , the second substrate metallization layer patterned to include at least two conductor tracks disposed distant from one another, the method comprising: pre-heating the carrier by increasing a temperature (T) of the carrier from an initial temperature (T0) to at least a first threshold temperature (T1); increasing a pressure (p), with which the pre-heated carrier , the ceramic substrate and a powder-including layer (41") disposed between the pre-heated carrier and the ceramic substrate and adjoining both the carrier and the first substrate metallization layer are pressed against one another, from an initial pressure of less than or equal to an initial pressure threshold (p0) to at least a first pressure threshold (p1); sintering the powder-including layer (41") by simultaneously keeping the pressure (p) for at least a minimum sintering time (Δt) at at least the first pressure threshold (p1) and the temperature (T) of the carrier at at least the first temperature threshold (T1) so that the powder-including layer (41") is converted into a joining layer joining the carrier and the ceramic substrate ; wherein the first temperature threshold (T1) is a temperature which allows for sintering the powder-including layer (41") when it is heated to that temperature. pre-heating the carrier by increasing a temperature (T) of the carrier from an initial temperature (T0) to at least a first threshold temperature (T1); increasing a pressure (p), with which the pre-heated carrier , the ceramic substrate and a powder-including layer (41") disposed between the pre-heated carrier and the ceramic substrate and adjoining both the carrier and the first substrate metallization layer are pressed against one another, from an initial pressure of less than or equal to an initial pressure threshold (p0) to at least a first pressure threshold (p1); sintering the powder-including layer (41") by simultaneously keeping the pressure (p) for at least a minimum sintering time (Δt) at at least the first pressure threshold (p1) and the temperature (T) of the carrier at at least the first temperature threshold (T1) so that the powder-including layer (41") is converted into a joining layer joining the carrier and the ceramic substrate ; wherein the first temperature threshold (T1) is a temperature which allows for sintering the powder-including layer (41") when it is heated to that temperature.
An apparatus comprising: a vessel for holding a volume of soap, the vessel having a fill opening ; and a spout having a nozzle formed therein for dispensing soap from the vessel , the nozzle in fluid communication with the vessel via a tubing ; a fluid level sensor assembly configured to provide feedback regarding a level of soap in the vessel , the fluid level sensor assembly including an arm operably associated with the vessel such that a position of the arm within the vessel changes with changes in volume of soap within the vessel and an accelerometer attached to the arm and configured to move in an arc as the arm pivots, and wherein the accelerometer that outputs a signal that varies with changes in the volume of soap within the vessel ; wherein the arm comprises a linkage having a stationary link and a pivoting link pivotably mounted to the stationary link at a lower end of the stationary link , and wherein the accelerometer is mounted to the pivoting link and is configured to measure an angle of the pivoting link relative to the stationary link ; and wherein the stationary link is oriented along a vertical axis, extends through the fill opening , and has an upper end mounted to the spout . a vessel for holding a volume of soap, the vessel having a fill opening ; and a spout having a nozzle formed therein for dispensing soap from the vessel , the nozzle in fluid communication with the vessel via a tubing ; a fluid level sensor assembly configured to provide feedback regarding a level of soap in the vessel , the fluid level sensor assembly including an arm operably associated with the vessel such that a position of the arm within the vessel changes with changes in volume of soap within the vessel and an accelerometer attached to the arm and configured to move in an arc as the arm pivots, and wherein the accelerometer that outputs a signal that varies with changes in the volume of soap within the vessel ; wherein the arm comprises a linkage having a stationary link and a pivoting link pivotably mounted to the stationary link at a lower end of the stationary link , and wherein the accelerometer is mounted to the pivoting link and is configured to measure an angle of the pivoting link relative to the stationary link ; and wherein the stationary link is oriented along a vertical axis, extends through the fill opening , and has an upper end mounted to the spout .
A compound having the formula R1 -COOH (I) wherein R1 is an alkyl group having a C 7-11 backbone, optionally branched with a C 1-6 alkyl group at any C position in the backbone, or a pharmaceutically acceptable salt, amide or ester thereof, wherein the backbone of the alkyl group, and/or the branched alkyl groups, are optionally interrupted by one or more heteroatoms, wherein the compound is selected from nonanoic acid, 4-ethyloctanoic acid, 2-butyloctanoic acid, 4-methylnonanoic acid, and 3-Methylundecanoic acid, for use in the treatment or prevention of a disease or a biomedical condition selected from seizure-related disorders
A compound wherein the compound comprises an anilide moiety according to formula (III): wherein W is C, or N, if W = N, R 3 is dispensed with; X and Y are independently selected from C and N; Z is N, or O; if Z = O, R 5 is dispensed with; R 1 is selected from -CH 2 -aryl; -CH 2 -(hetero)aryl; -CH 2 -CH 2 -aryl; -CH 2 -CH 2 -(hetero)aryl; -N(R 2 )-CH2-aryl; and -N(R 2 )-CH2-heteroaryl R 2 is H, or Me; R 3 and R 4 are independently selected from H, F, Cl and Me; R 5 is H; R 8 is one or more substituents selected from H, F and methoxy, preferably two F or two methoxy substituents; R 9 is H, or alkyl; R 10 is selected from alkyl, aminoalkyl, morpholinalkyl, acetyl, tosyl, and benzyl; R 11 is H, NH 2 , or aminobenzyl; and the pharmaceutically acceptable salts, solvates and optical isomers thereof. W is C, or N, if W = N, R 3 is dispensed with; X and Y are independently selected from C and N; Z is N, or O; if Z = O, R 5 is dispensed with; R 1 is selected from -CH 2 -aryl; -CH 2 -(hetero)aryl; -CH 2 -CH 2 -aryl; -CH 2 -CH 2 -(hetero)aryl; -N(R 2 )-CH2-aryl; and -N(R 2 )-CH2-heteroaryl R 2 is H, or Me; R 3 and R 4 are independently selected from H, F, Cl and Me; R 5 is H; R 8 is one or more substituents selected from H, F and methoxy, preferably two F or two methoxy substituents; R 9 is H, or alkyl; R 10 is selected from alkyl, aminoalkyl, morpholinalkyl, acetyl, tosyl, and benzyl; R 11 is H, NH 2 , or aminobenzyl;
An eye tracking system (100 and 1200) comprising: an infrared module (IR Laser 105 and 1240A) that is configured to emit a beam of photons, wherein at least some of the emitted photons are directed toward a user's eye during use of the eye tracking system wherein the infrared module is configured to emit a continuous wave of photons that is continuous for a determined duration; a microelectromechanical, MEMs, scanner configured to scan the emitted beam of photons; one or more silicon photomultipliers, SiPM, (135 and 1225) that are positioned relative to the infrared module and that are positioned to capture a reflection of at least some photons which reflect from the user's eye as a result of the at least some photons being directed towards the user's eye within the beam of photons whereby, the reflection is also a continuous wave reflection and wherein the one or more SiPMs are configured to capture the continuous wave reflection during use of the eye tracking system; and an analog low pass filter configured to filter an electrical response of a first SiPM. an infrared module (IR Laser 105 and 1240A) that is configured to emit a beam of photons, wherein at least some of the emitted photons are directed toward a user's eye during use of the eye tracking system wherein the infrared module is configured to emit a continuous wave of photons that is continuous for a determined duration; a microelectromechanical, MEMs, scanner configured to scan the emitted beam of photons; one or more silicon photomultipliers, SiPM, (135 and 1225) that are positioned relative to the infrared module and that are positioned to capture a reflection of at least some photons which reflect from the user's eye as a result of the at least some photons being directed towards the user's eye within the beam of photons whereby, the reflection is also a continuous wave reflection and wherein the one or more SiPMs are configured to capture the continuous wave reflection during use of the eye tracking system; and an analog low pass filter configured to filter an electrical response of a first SiPM.
A system for a gas turbine engine, comprising: a gear train with an axial centerline ; and a gutter disposed radially outside of the axial centerline , the gutter at least partially circumscribing the gear train , and including an inner surface ; and a channel configured to receive fluid directed out of the gear train , the channel extending radially into the gutter from the inner surface to a channel end , and circumferentially to a channel outlet ; characterised in that at least a portion of the channel has a cross-sectional channel geometry that tapers axially as the channel extends radially towards the channel end ; and in that the channel outlet has a triangular cross-sectional geometry a gear train with an axial centerline ; and a gutter disposed radially outside of the axial centerline , the gutter at least partially circumscribing the gear train , and including an inner surface ; and a channel configured to receive fluid directed out of the gear train , the channel extending radially into the gutter from the inner surface to a channel end , and circumferentially to a channel outlet ; characterised in that an inner surface ; and a channel configured to receive fluid directed out of the gear train , the channel extending radially into the gutter from the inner surface to a channel end , and circumferentially to a channel outlet ; characterised in that at least a portion of the channel has a cross-sectional channel geometry that tapers axially as the channel extends radially towards the channel end ; and in that the channel outlet has a triangular cross-sectional geometry
Current transformer comprising: - a magnetic circuit made from magnetic material, intended to be placed around a primary conductor , and - a secondary winding wound on a part of said magnetic circuit in order to deliver a secondary current to a processing circuit , characterized in that the magnetic circuit comprises at least one device for varying the magnetization of a portion of said magnetic circuit depending on the temperature in order to limit or reduce the magnetic flux in the magnetic circuit when the temperature of the magnetic circuit increases. - a magnetic circuit made from magnetic material, intended to be placed around a primary conductor , and - a secondary winding wound on a part of said magnetic circuit in order to deliver a secondary current to a processing circuit ,