mhurhangee/ep-ind-claims huggingface dataset:
Coordination polymers of MOF type, characterized in that they comprise a repeating unit of the general formula [M 2 (dcx) 2 L 2], wherein: - M represents a metal cation (M 2+) selected from the group comprising: Zn 2+, Cd 2+, Cu 2+, Mn 2+, Co 2+, Ni 2+, - dcx represents an anion of a dicarboxylic acid selected from 1,4-benzenedicarboxylic acid, 1,4-cyclohexanedicarboxylic acid, 2,6-naphthalenedicarboxylic acid, biphenyl-4,4'-dicarboxylic acid, thiophene-2,5-dicarboxylic acid, 2,5-dihydroxyterephthtalic acid and substituted 1,4-benzenedicarboxylic acid (formula 2): where X is selected from NH 2, Br, NO 2 and OH, - L represents a neutral molecule of hydrazone selected from the compounds of the formulas 8, 9 or 10: wherein A, D, X, Z independently represent a nitrogen atom, or a carbon atom with the amine substituent (C-NH 2), or a carbon atom with a hydrogen atom, and wherein R represents a hydrogen atom, a C 1 -C 6 alkyl or aryl group. - M represents a metal cation (M 2+) selected from the group comprising: Zn 2+, Cd 2+, Cu 2+, Mn 2+, Co 2+, Ni 2+, - dcx represents an anion of a dicarboxylic acid selected from 1,4-benzenedicarboxylic acid, 1,4-cyclohexanedicarboxylic acid, 2,6-naphthalenedicarboxylic acid, biphenyl-4,4'-dicarboxylic acid, thiophene-2,5-dicarboxylic acid, 2,5-dihydroxyterephthtalic acid and substituted 1,4-benzenedicarboxylic acid (formula 2): where X is selected from NH 2, Br, NO 2 and OH, - L represents a neutral molecule of hydrazone selected from the compounds of the formulas 8, 9 or 10: wherein A, D, X, Z independently represent a nitrogen atom, or a carbon atom with the amine substituent (C-NH 2), or a carbon atom with a hydrogen atom, and wherein R represents a hydrogen atom, a C 1 -C 6 alkyl or aryl group.
A motor driving device, comprising: an inverter configured to convert a DC voltage of DC terminals into an AC voltage according to a switching operation and to output AC voltage for a motor; a DC terminal voltage detector configured to detect the voltage of the DC terminals; an output current detector configured to detect an output current flowing through the motor; and a controller configured to control the inverter based on the detected output current, wherein the controller is configured to control the motor to operate based on a flux current command value from among the flux current command values and a torque current command value for driving the motor in an overvoltage protection mode when rotation direction of the motor is switched from forward rotation to reverse rotation, and the detected DC terminal voltage is higher than a first predetermined value and power is supplied from the motor to the DC terminals, wherein the controller is configured to control a speed of the motor to decrease in the overvoltage protection mode, wherein the controller is configured to reversely rotate the motor at a first speed (-ωr1), to reversely rotate at a second speed (-ωr2) lower than the first speed (-ωr1), and then to forwardly rotate the motor at a third speed (-ωr3) lower than the second speed in the overvoltage protection mode. an inverter configured to convert a DC voltage of DC terminals into an AC voltage according to a switching operation and to output AC voltage for a motor; a DC terminal voltage detector configured to detect the voltage of the DC terminals; an output current detector configured to detect an output current flowing through the motor; and a controller configured to control the inverter based on the detected output current, wherein the controller is configured to control the motor to operate based on a flux current command value from among the flux current command values and a torque current command value for driving the motor in an overvoltage protection mode when rotation direction of the motor is switched from forward rotation to reverse rotation, and the detected DC terminal voltage is higher than a first predetermined value and power is supplied from the motor to the DC terminals, wherein the controller is configured to control a speed of the motor to decrease in the overvoltage protection mode, wherein the controller is configured to reversely rotate the motor at a first speed (-ωr1), to reversely rotate at a second speed (-ωr2) lower than the first speed (-ωr1), and then to forwardly rotate the motor at a third speed (-ωr3) lower than the second speed in the overvoltage protection mode.
- Pharmaceutical composition comprising a galactose analogue represented by the following formula: wherein R1 is selected from the group consisting of N 3 and CN, for use in the treatment of Fabry disease, wherein Fabry disease is caused by a mutation affecting the folding of the enzyme α-galactosidase A.
A system comprising: a capacitance sensor (110, 414) having an inertial proof mass disposed between a first electrode structure and a second electrode structure; a switching system switchable between providing one of a positive charge pulse and a negative charge pulse to one of the first electrode structure and the second electrode structure; a sequencer (170, 200) to generate a plurality of frame profiles (210 - 240) describing a plurality of different charge cycle sequences for providing the positive charge pulse and the negative charge pulse to one of the first electrode structure and the second electrode structure; and a controller that controls the switching of the switching circuit based on at least one frame profile (210 - 240) of the plurality of frame profiles (210 - 240) to provide one of the positive charge pulse or the negative charge pulse to the first electrode structure during a first portion of a charge cycle time period and to provide an opposite polarity charge pulse from that provided to the first electrode structure to the second electrode structure during a second portion of the charge cycle time period to generate an error signal with respect to the inertial proof mass of the capacitance sensor (110, 414). a capacitance sensor (110, 414) having an inertial proof mass disposed between a first electrode structure and a second electrode structure; a switching system switchable between providing one of a positive charge pulse and a negative charge pulse to one of the first electrode structure and the second electrode structure; a sequencer (170, 200) to generate a plurality of frame profiles (210 - 240) describing a plurality of different charge cycle sequences for providing the positive charge pulse and the negative charge pulse to one of the first electrode structure and the second electrode structure; and a controller that controls the switching of the switching circuit based on at least one frame profile (210 - 240) of the plurality of frame profiles (210 - 240) to provide one of the positive charge pulse or the negative charge pulse to the first electrode structure during a first portion of a charge cycle time period and to provide an opposite polarity charge pulse from that provided to the first electrode structure to the second electrode structure during a second portion of the charge cycle time period to generate an error signal with respect to the inertial proof mass of the capacitance sensor (110, 414).
A sealing assembly for a battery, comprising: a ceramic ring having a receiving hole; a metal ring fitted over the ceramic ring for sealing an open end of the battery, a column formed in the receiving hole which comprises a metal-metal composite, characterized in that the metal-metal composite comprises: a metal porous body; and a metal material filled in pores of the metal porous body; wherein the metal porous body comprises a first metal and a second metal, and the first metal is Cu; the second metal is at least one selected from a group consisting of W and Mo, and based on the total weight of the metal porous body, the content of the first metal is about 5 wt% to about 40 wt %, and the content of the second metal is about 60 wt % to about 95 wt %. a ceramic ring having a receiving hole; a metal ring fitted over the ceramic ring for sealing an open end of the battery, a column formed in the receiving hole which comprises a metal-metal composite, characterized in that the metal-metal composite comprises: a metal porous body; and a metal material filled in pores of the metal porous body; wherein the metal porous body comprises a first metal and a second metal, and the first metal is Cu; the second metal is at least one selected from a group consisting of W and Mo, and based on the total weight of the metal porous body, the content of the first metal is about 5 wt% to about 40 wt %, and the content of the second metal is about 60 wt % to about 95 wt %. a metal porous body; and a metal material filled in pores of the metal porous body; wherein the metal porous body comprises a first metal and a second metal, and the first metal is Cu; the second metal is at least one selected from a group consisting of W and Mo, and based on the total weight of the metal porous body, the content of the first metal is about 5 wt% to about 40 wt %, and the content of the second metal is about 60 wt % to about 95 wt %.
A method for communicating based on prediction and pre-preparation in a wireless network, comprising: determining, by a network entity, a predicted time of entering and a predicted duration of stay of a user equipment, UE, in each of a plurality of cells according to a predicted route of the UE, the predicted route comprising predicted UE locations at corresponding predicted times; determining, by the network entity, mobility prediction information according to the predicted time of entering and the duration of stay of the UE in each of the plurality of cells; and transmitting, by the network entity, the mobility prediction information to the UE, wherein the mobility prediction information contains scheduled actions and parameters to apply at the plurality of cells to the UE. determining, by a network entity, a predicted time of entering and a predicted duration of stay of a user equipment, UE, in each of a plurality of cells according to a predicted route of the UE, the predicted route comprising predicted UE locations at corresponding predicted times; determining, by the network entity, mobility prediction information according to the predicted time of entering and the duration of stay of the UE in each of the plurality of cells; and transmitting, by the network entity, the mobility prediction information to the UE, wherein the mobility prediction information contains scheduled actions and parameters to apply at the plurality of cells to the UE.
A gas generator for an air bag comprising: an ignition means (6,104) including an igniter (6,104) to be activated by the activating signal; and a gas generating means (8,106) to generate an operating gas for inflating the air bag; wherein the ignition means (6,104) and the gas generating means (8,106) are stored in a cylindrical housing (3,103) having a gas discharge port (11,111), the cylindrical housing (3,103) has an opening portion in which an igniter supporting member (4,113) disposed in the housing (3,103) is inserted and fixed, the opening portion is provided with a connecting portion that fixes the inserted igniter supporting member (4,113), and the connecting portion is provided in inner side of the housing (3,103) rather than on the end surface having the opening portion, characterized in that the opening portion is provided with a tubular portion (12,112) bent inside the housing (3,103). an ignition means (6,104) including an igniter (6,104) to be activated by the activating signal; and a gas generating means (8,106) to generate an operating gas for inflating the air bag; wherein the ignition means (6,104) and the gas generating means (8,106) are stored in a cylindrical housing (3,103) having a gas discharge port (11,111), the cylindrical housing (3,103) has an opening portion in which an igniter supporting member (4,113) disposed in the housing (3,103) is inserted and fixed, the opening portion is provided with a connecting portion that fixes the inserted igniter supporting member (4,113), and the connecting portion is provided in inner side of the housing (3,103) rather than on the end surface having the opening portion, characterized in that the opening portion is provided with a tubular portion (12,112) bent inside the housing (3,103).
A method for erecting the structure of an aerostat by successive horizontal sections, starting with the upper horizontal section, comprising an iteration of the following steps, starting with a current state of manufacturing of the structure of the aerostat, - lifting the current state of the structure, at first lifting points, by lifting means (20, 20', 50, 50') arranged in a current transverse position, - placing a support device (30, 30') in line with second lifting points of the current state of the structure, - transferring the current state of the structure from the lifting means to the support device, - moving the lifting means to another transverse position, - fully assembling the horizontal section immediately below the current state of the structure on the structure. - lifting the current state of the structure, at first lifting points, by lifting means (20, 20', 50, 50') arranged in a current transverse position, - placing a support device (30, 30') in line with second lifting points of the current state of the structure, - transferring the current state of the structure from the lifting means to the support device, - moving the lifting means to another transverse position, - fully assembling the horizontal section immediately below the current state of the structure on the structure.
A device for treating a reactive medium with electromagnetic radiation comprising an electromagnetic radiation generator, a reactor containing said reactive medium, and a device for transmitting the electromagnetic radiation generated by the generator to the reactive medium contained in said reactor, said device comprising a wave guide intended for transmitting the electromagnetic radiation of the generator and coupling means arranged so as to allow transfer into the reactive medium of the electromagnetic energy transmitted by the wave guide, wherein said wave guide has a return loop configuration, characterized in that the wave guide includes a curved segment in a general "U" shape and forming a return loop from said wave guide, and the wave guide includes a first and a second rectilinear segments facing each other and respectively connected to a first and a second ends of said curved segment, and in that it comprises a separation wall allowing isolation of the generator from the reactor, said reactor being coupled with the curved segment of the wave guide and said curved segment at least partly extending on one side of the separation wall opposite to said generator, wherein the wave guide crosses the separation wall twice so that the curved segment is positioned on the side of the reactor opposite to the generator and the rectilinear segments (41, 42) are located on the side of the generator opposite to the reactor.
A method for producing a cell population comprising a pancreatic progenitor cell, which comprises the step of distinguishing, detecting, and/or identifying the expression of a translated product of a Nephrin-like 3 (Neph3) gene in an endodermal cell sample, and the step of collecting, isolating, and/or obtaining a cell expressing the translated product of the gene.
An apparatus for determining a glucose level in body tissue or blood comprising an electrical detection device having an electrode arrangement (33, 35, 36; 45) for applying an electric field to the tissue or blood for measuring at least one first parameter describing a response of said tissue or blood to said electric field, an optical detection device comprising a light source and a light detector for measuring at least one second parameter describing a transmission or reflection of light by said tissue or blood, and evaluation circuitry for determining the glucose level from a combination of said first and second parameter, characterized in that said light source is located to emit light through said electrode arrangement (33, 35, 36; 45) and/or said light detector is located to measure light transmitted through said electrode arrangement (33, 35, 36; 45) for measuring said second parameter in a part of said tissue or blood experiencing said electric field.
A dual-output generator, comprising: a first generator having a rotor; a second generator having a rotor, the first generator rotor being coupled to the second generator rotor for common rotation with the first generator rotor; a first power converter connected to the first generator output for converting rotation of the first generator rotor into direct current power output; and a second power converter connected to the second generator output for converting rotation of the second generator rotor into constant frequency alternating current power output; wherein the first generator includes a first exciter including exciter stator windings and exciter rotor windings, wherein said exciter rotor windings are rotatably connected to the first generator rotor; the second generator includes a second exciter including exciter stator windings and exciter rotor windings, wherein said exciter rotor windings are rotatably connected to the second generator rotor; a permanent magnet generator being coupled with the first and second rotors (124,144) for common rotation with said first and second rotors (124,144) and wherein said permanent magnet generator is suitable providing current to the first and second exciter. a first generator having a rotor; a second generator having a rotor, the first generator rotor being coupled to the second generator rotor for common rotation with the first generator rotor; a first power converter connected to the first generator output for converting rotation of the first generator rotor into direct current power output; and a second power converter connected to the second generator output for converting rotation of the second generator rotor into constant frequency alternating current power output; wherein the first generator includes a first exciter including exciter stator windings and exciter rotor windings, wherein said exciter rotor windings are rotatably connected to the first generator rotor; the second generator includes a second exciter including exciter stator windings and exciter rotor windings, wherein said exciter rotor windings are rotatably connected to the second generator rotor; a permanent magnet generator being coupled with the first and second rotors (124,144) for common rotation with said first and second rotors (124,144) and wherein said permanent magnet generator is suitable providing current to the first and second exciter.
Closure for a flexible thin-walled packaging, comprising: - a rigid overcap, directly or indirectly applicable to a spout in the packaging, comprising an annular overcap wall extending along a main axis between an overcap base and an overcap wall edge, said overcap wall being made of a first plastic material; - a collar, coaxial to the overcap wall, suitable to be inserted on a grip portion of the spout so as to remain axially bound thereto; - a flexible lace connecting the collar to the overcap wall; said overcap comprises a plurality of fins, protruding radially externally from the overcap wall, an annular grip wall, continuous or in sections, made integral with the overcap by said fins, by virtue of the fins, the grip wall is radially spaced from the overcap wall, forming axial anti-suffocation passages; wherein the closure is characterized in that said lace being made by bi-injection together with the overcap wall and the collar, made of a second plastic material, different from the first plastic material. - a rigid overcap, directly or indirectly applicable to a spout in the packaging, comprising an annular overcap wall extending along a main axis between an overcap base and an overcap wall edge, said overcap wall being made of a first plastic material; - a collar, coaxial to the overcap wall, suitable to be inserted on a grip portion of the spout so as to remain axially bound thereto; - a flexible lace connecting the collar to the overcap wall; said overcap comprises a plurality of fins, protruding radially externally from the overcap wall, an annular grip wall, continuous or in sections, made integral with the overcap by said fins, by virtue of the fins, the grip wall is radially spaced from the overcap wall, forming axial anti-suffocation passages; wherein the closure is characterized in that said lace being made by bi-injection together with the overcap wall and the collar, made of a second plastic material, different from the first plastic material.
Pump valve for the delivery of abrasive and/or heterogeneous mixtures, which is suitable for downflow operation, a two-part valve casing (1, 7) formed by a lower part and an upper part being provided, characterised in that an at least partially spherical closure member is provided in the lower part of the valve casing (1, 7) and a float, which is connected to the closure member via a connecting rod, is disposed in the upper part of the valve casing (1, 7), a double-sided usable valve seat being disposed between the closure member and the float.
A line head for a garden trimmer comprising: a casing, which rotates around an axis and has a hollow body provided with a lid; a cylindrical seat being defined inside said hollow body; the hollow body being configured to house, in use, a reel; said reel being provided, in turn, with two grooves (4a, 4b) on its substantially cylindrical surface; each groove (4a, 4b) being designed to receive a respective line (5a, 5b) wound around said axis; said hollow body being further provided with a base wall and with an annular wall with axis; said annular wall being provided with two recesses, arranged in a diametrical position relative to one another, from which the lines (5a, 5b) come out; said line head being further provided with a fitting equipment (60; 60*) for fitting said reel in said hollow body; said fitting equipment (60; 60*) comprising a main body (61; 61*) provided with means (63; 63*, 63**) designed to selectively fasten one of said lines (5a, 5b) while said reel is being fitted in said hollow body; said fitting equipment (60; 60*) being removable to permit, in use, the closing of said hollow body with a lid.
A system comprising: a current source circuit; and a system power input; characterised in that the system comprises load switching circuitry coupling the current source circuit and the system power input to an output (109, 111, 113) configured to couple to a vaporizer heating element, wherein the current source circuit, the system power input, and the load switching circuitry form part of an integrated circuit. a current source circuit; and a system power input; characterised in that the system comprises load switching circuitry coupling the current source circuit and the system power input to an output (109, 111, 113) configured to couple to a vaporizer heating element, wherein the current source circuit, the system power input, and the load switching circuitry form part of an integrated circuit.