mhurhangee/patent-ind-claim-en huggingface dataset:
Power module (LM), comprising · a carrier substrate (TS) having a dielectric layer (DL), a metallization layer (ML) and a cutout (AN), · a multiplicity of electrical functional elements (FE), wherein in the metallization layer (ML) an electrical line (EL) is structured as signal line or power line, · the multiplicity of functional elements (FE) are interconnected with the electrical line (EL), · the multiplicity of functional elements (FE) are arranged in the cutout (AN), and · each of the functional elements (FE) comprises a thermal bridge (WB) with an ESD protection element, said thermal bridge having a higher thermal conductivity than the carrier substrate (TS), · the respective thermal bridges (WB) with the respective ESD protection element are formed from the same material, · the multiplicity of electrical functional elements are arranged in rows and columns in a matrix arrangement. · a carrier substrate (TS) having a dielectric layer (DL), a metallization layer (ML) and a cutout (AN), · a multiplicity of electrical functional elements (FE), wherein in the metallization layer (ML) an electrical line (EL) is structured as signal line or power line, · the multiplicity of functional elements (FE) are interconnected with the electrical line (EL), · the multiplicity of functional elements (FE) are arranged in the cutout (AN), and · each of the functional elements (FE) comprises a thermal bridge (WB) with an ESD protection element, said thermal bridge having a higher thermal conductivity than the carrier substrate (TS), · the respective thermal bridges (WB) with the respective ESD protection element are formed from the same material, · the multiplicity of electrical functional elements are arranged in rows and columns in a matrix arrangement.
A transformerless step-down power conversion apparatus configured to receive an alternating current (AC) signal at first and second input nodes and to provide a low voltage direct current (DC) signal from an output node , the power conversion apparatus comprising: a main path comprising a first capacitor wherein a first terminal of the first capacitor is arranged to be in a series current flow path with the first input node ; a first current flow path operative to carry current carried by the main path in at least one of a positive going part and a negative going part of the alternating current signal, wherein the first current path comprises a first switch and extends from the second terminal of the first capacitor to the first terminal of a second capacitor acting as an energy store by way of the first switch , the second terminal of the second capacitor being connected to the second input node ; a second current flow path operative to carry current carried by the main path in a positive going part and a negative going part of the alternating current signal, wherein the second current path comprises a second switch and extends from the second terminal of the first capacitor to the second input node by way of the second switch ; and a switch control circuit for controlling the first and second switches ; characterized in that the switch control circuit controls both the first and second switches in response to the input alternating current signal and to a voltage stored on the second capacitor such that the first and second switches are not closed at the same time and such that the low voltage direct current signal is regulated to a target voltage value. a main path comprising a first capacitor wherein a first terminal of the first capacitor is arranged to be in a series current flow path with the first input node ; a first current flow path operative to carry current carried by the main path in at least one of a positive going part and a negative going part of the alternating current signal, wherein the first current path comprises a first switch and extends from the second terminal of the first capacitor to the first terminal of a second capacitor acting as an energy store by way of the first switch , the second terminal of the second capacitor being connected to the second input node ; a second current flow path operative to carry current carried by the main path in a positive going part and a negative going part of the alternating current signal, wherein the second current path comprises a second switch and extends from the second terminal of the first capacitor to the second input node by way of the second switch ; and a switch control circuit for controlling the first and second switches ; characterized in that the switch control circuit controls both the first and second switches in response to the input alternating current signal and to a voltage stored on the second capacitor such that the first and second switches are not closed at the same time and such that the low voltage direct current signal is regulated to a target voltage value.
A room temperature vulcanizable organopolysiloxane composition comprising the following components (A), (B), (C) and (F): (A) 100 parts by weight of organopolysiloxane having the structural formula : wherein each R 1 independently is a substituted or unsubstituted C 1 -C 10 alkyl group or a substituted or unsubstituted C 6 -C 10 aryl group, each R 2 independently is a substituted or unsubstituted C 1 -C 10 alkyl group or a substituted or unsubstituted C 6 -C 10 aryl group, m is an integer of 1 to 3, n is an integer of at least 2, and Z is an organopolysiloxane skeleton of linear, branched, cyclic and/or crosslinked structure as the backbone, (B) 0.1 to 30 parts by weight of hydrolysable (organo)silane compound having the general formula and/or partial hydrolytic condensate thereof, R 5 (4-a) SiX a wherein R 5 is halo-substituted or unsubstituted C 1 -C 10 monovalent hydrocarbon group, X is hydrolysable group and a is 3 or 4, (C) 0.001 to 10 parts by weight of curing catalyst, and (F) 0.01 to 100 parts by weight of bleed oil. (A) 100 parts by weight of organopolysiloxane having the structural formula : wherein each R 1 independently is a substituted or unsubstituted C 1 -C 10 alkyl group or a substituted or unsubstituted C 6 -C 10 aryl group, each R 2 independently is a substituted or unsubstituted C 1 -C 10 alkyl group or a substituted or unsubstituted C 6 -C 10 aryl group, m is an integer of 1 to 3, n is an integer of at least 2, and Z is an organopolysiloxane skeleton of linear, branched, cyclic and/or crosslinked structure as the backbone, (B) 0.1 to 30 parts by weight of hydrolysable (organo)silane compound having the general formula and/or partial hydrolytic condensate thereof, R 5 (4-a) SiX a wherein R 5 is halo-substituted or unsubstituted C 1 -C 10 monovalent hydrocarbon group, X is hydrolysable group and a is 3 or 4, (C) 0.001 to 10 parts by weight of curing catalyst, and (F) 0.01 to 100 parts by weight of bleed oil.
Hydraulic bearing for mounting a unit of a motor vehicle, having a supporting bearing section and a bearing section , a working chamber which can be filled with hydraulic fluid being formed in the supporting bearing section and a compensating chamber which can be filled with hydraulic fluid being formed in the bearing section , wherein a nozzle disc through which a flow can pass and which separates the working chamber from the compensating chamber is arranged between the support bearing section and the bearing section , wherein a damping channel is formed in the nozzle disc for fluidic communication of the working chamber with the compensating chamber , wherein the two chambers , the damping channel and the hydraulic fluid form a first damping system for damping vibrations with, in particular, lower frequencies, and a second damping system being formed for damping vibrations with higher frequencies, which has an overflow connection between the compensating chamber and an absorber channel formed for absorbing idling vibrations characterized in that the overflow connection is formed on a disk surface of a clamping disk facing away from a diaphragm on a pin in such a way that it cannot be covered or at least partially closed by a movable diaphragm of the equalizing chamber .
A fuel assembly , comprising: a lower fuel support member ; an upper fuel support member ; a cylindrical channel box which has an upper end attached to the upper fuel support member, and extends toward the lower fuel support member; a plurality of first fuel rods (1-4, 12), each of which has a lower end supported to the lower fuel support member and an upper end supported to the upper fuel support member, and contains a nuclear fuel material but does not contain a burnable poison; a plurality of second fuel rods (G1, G2), each of which has a lower end supported to the lower fuel support member and an upper end supported to the upper fuel support member, and contains the nuclear fuel material and the burnable poison, and a plurality of third fuel rods (13; P1, P2), each of which has a lower end supported to the lower fuel support member and an upper end not supported to the upper fuel support member, has a length in an axial direction shorter than the first fuel rod and the second fuel rod, and contains the nuclear fuel material but does not contain the burnable poison, wherein the plurality of first fuel rods, the plurality of second fuel rods, and the plurality of third fuel rods are disposed on an inner side of the channel box, characterised in that two third fuel rods (13; P2) are brought to be adjacent, and disposed in an outermost periphery which is adjacent to an inner surface of the channel box in a horizontal cross-sectional view of the fuel assembly, and wherein a second fuel rod (G1) is disposed to be adjacent to at least one of two adjacent third fuel rods (P2). a lower fuel support member ; an upper fuel support member ; a cylindrical channel box which has an upper end attached to the upper fuel support member, and extends toward the lower fuel support member; a plurality of first fuel rods (1-4, 12), each of which has a lower end supported to the lower fuel support member and an upper end supported to the upper fuel support member, and contains a nuclear fuel material but does not contain a burnable poison; a plurality of second fuel rods (G1, G2), each of which has a lower end supported to the lower fuel support member and an upper end supported to the upper fuel support member, and contains the nuclear fuel material and the burnable poison, and a plurality of third fuel rods (13; P1, P2), each of which has a lower end supported to the lower fuel support member and an upper end not supported to the upper fuel support member, has a length in an axial direction shorter than the first fuel rod and the second fuel rod, and contains the nuclear fuel material but does not contain the burnable poison, wherein the plurality of first fuel rods, the plurality of second fuel rods, and the plurality of third fuel rods are disposed on an inner side of the channel box, characterised in that two third fuel rods (13; P2) are brought to be adjacent, and disposed in an outermost periphery which is adjacent to an inner surface of the channel box in a horizontal cross-sectional view of the fuel assembly, and wherein a second fuel rod (G1) is disposed to be adjacent to at least one of two adjacent third fuel rods (P2).
An aromatic polyamide porous membrane, comprising: a uniform internal structure, the internal structure being a three-dimensional network porous structure and comprising a plurality of micron-sized pores, both surfaces of the aromatic polyamide porous membrane have nearly the same porosity and the same pore size, an average pore size at each of the surfaces of the aromatic polyamide porous membrane is in a range from 0.4μm to 1.0μm, and the aromatic polyamide porous membrane has a porosity of 30% to 70%, characterized in that the pores distributed in the cross-section of the aromatic polyamide porous membrane are composed of three sets of continuous pore size distributions: SET (I) 30 to 70nm, SET (II) 8 to 30nm, and SET (III) 70 to 100nm, the area occupied by pores of SET (I) is 80% to 97% of the total area of the pores distributed in the cross-section of the aromatic polyamide porous membrane, the area occupied by pores of SET (II) is 1% to 10% of the total area of the pores distributed in the cross-section of the aromatic polyamide porous membrane, and the area occupied by pores of SET (III) is 1% to 5% of the total area of the pores distributed in the cross-section of the aromatic polyamide porous membrane. a uniform internal structure, the internal structure being a three-dimensional network porous structure and comprising a plurality of micron-sized pores, both surfaces of the aromatic polyamide porous membrane have nearly the same porosity and the same pore size, an average pore size at each of the surfaces of the aromatic polyamide porous membrane is in a range from 0.4μm to 1.0μm, and the aromatic polyamide porous membrane has a porosity of 30% to 70%, characterized in that the pores distributed in the cross-section of the aromatic polyamide porous membrane are composed of three sets of continuous pore size distributions: SET (I) 30 to 70nm, SET (II) 8 to 30nm, and SET (III) 70 to 100nm, the area occupied by pores of SET (I) is 80% to 97% of the total area of the pores distributed in the cross-section of the aromatic polyamide porous membrane, the area occupied by pores of SET (II) is 1% to 10% of the total area of the pores distributed in the cross-section of the aromatic polyamide porous membrane, and the area occupied by pores of SET (III) is 1% to 5% of the total area of the pores distributed in the cross-section of the aromatic polyamide porous membrane.
Paliperidone palmitate for use in a patient in need of treatment of schizophrenia or schizoaffective disorders by a dosing regimen comprising : administering intramuscularly to the patient a first loading dose of 312mg-468mg of paliperidone palmitate on the first day of treatment; and beginning on the 29th day ± 7 days from the first loading dose, administering intramuscularly to the patient a first monthly maintenance dose in the range of 39mg-234mg of paliperidone palmitate, wherein each dose of paliperidone palmitate is formulated in an aqueous suspension formulation. administering intramuscularly to the patient a first loading dose of 312mg-468mg of paliperidone palmitate on the first day of treatment; and beginning on the 29th day ± 7 days from the first loading dose, administering intramuscularly to the patient a first monthly maintenance dose in the range of 39mg-234mg of paliperidone palmitate, wherein each dose of paliperidone palmitate is formulated in an aqueous suspension formulation.
An electrode suitable for carrying out the electrolysis of water from aqueous alkaline solutions, the electrode comprising: a. a nickel metal substrate, , b. a ceramic material with a perovskite-type structure comprising an oxide of at least one metal selected from among lanthanides including lanthanum, cerium and praseodymium, the said ceramic material forming a coating on the said metal substrate, c. metal nanoparticles , wherein the said metal nanoparticles are socketed into the said ceramic material and are formed via an exsolution process. a. a nickel metal substrate, , b. a ceramic material with a perovskite-type structure comprising an oxide of at least one metal selected from among lanthanides including lanthanum, cerium and praseodymium, the said ceramic material forming a coating on the said metal substrate, c. metal nanoparticles ,
A method for detecting a brute force attack, comprising: obtaining (S310), by a network device, mirrored traffic between a client and a server; obtaining (S320), by the network device, a first session information sequence based on the mirrored traffic, wherein the first session information sequence comprises a plurality of pieces of session information, the plurality of pieces of session information have a one-to-one correspondence with a plurality of login sessions that are initiated by the client to the server by using the mirrored traffic, and an arrangement order of the plurality of pieces of session information in the first session information sequence is consistent with a chronological order of the plurality of login sessions; using (S330), by the network device, the first session information sequence as a first Markov chain, and obtaining a state chain probability value of the first Markov chain, wherein each piece of session information in the first session information sequence is used as a state in the first Markov chain; and determining (S340), by the network device based on the state chain probability value of the first Markov chain and a first benchmark probability value, whether the plurality of login sessions are a brute force attack, wherein the first benchmark probability value is used to identify the brute force attack. obtaining (S310), by a network device, mirrored traffic between a client and a server; obtaining (S320), by the network device, a first session information sequence based on the mirrored traffic, wherein the first session information sequence comprises a plurality of pieces of session information, the plurality of pieces of session information have a one-to-one correspondence with a plurality of login sessions that are initiated by the client to the server by using the mirrored traffic, and an arrangement order of the plurality of pieces of session information in the first session information sequence is consistent with a chronological order of the plurality of login sessions; using (S330), by the network device, the first session information sequence as a first Markov chain, and obtaining a state chain probability value of the first Markov chain, wherein each piece of session information in the first session information sequence is used as a state in the first Markov chain; and determining (S340), by the network device based on the state chain probability value of the first Markov chain and a first benchmark probability value, whether the plurality of login sessions are a brute force attack, wherein the first benchmark probability value is used to identify the brute force attack.
A capacitive level gauge assembly for a pressurised or liquefied gas container comprising: a body with a base capable of being fitted in an opening of said container; a pair of capacitive electrodes dimensioned to extend into the container, the pair of electrodes comprising a first inner electrode and a second tubular electrode surrounding the first electrode; an electrical circuit arranged in the body and connected to the electrodes; characterised in that electrode-carrying means are fitted in leakproof manner in said body and connected to said electrical circuit , said electrode-carrying means being configured to support the two electrodes fixedly with a measurement space therebetween; and the electrode-carrying means comprise a metallic support fitted in leakproof manner in the body and electrically insulated therefrom, the first electrode being fixed to said metallic support , and the metallic support being connected to the electrical circuit . a body with a base capable of being fitted in an opening of said container; a pair of capacitive electrodes dimensioned to extend into the container, the pair of electrodes comprising a first inner electrode and a second tubular electrode surrounding the first electrode; an electrical circuit arranged in the body and connected to the electrodes; characterised in that electrode-carrying means are fitted in leakproof manner in said body and connected to said electrical circuit , said electrode-carrying means being configured to support the two electrodes fixedly with a measurement space therebetween; and the electrode-carrying means comprise a metallic support fitted in leakproof manner in the body and electrically insulated therefrom, the first electrode being fixed to said metallic support , and the metallic support being connected to the electrical circuit .
A method for open-loop and closed-loop control of an internal combustion engine , wherein the rail pressure (pCR) is controlled by means of a low-pressure side suction throttle as a first pressure regulator in a closed-loop rail pressure control circuit ; and wherein a rail pressure disturbance variable (VDRV) for influencing the rail pressure (pCR) is generated by means of a high-pressure side pressure control valve as a second pressure regulator, by which fuel is commanded from the rail back into a fuel tank , characterized in that the rail pressure disturbance variable (VDRV) is calculated as a function of the actual rail pressure (pCR(IST)) and a nominal volume flow (VDV(SL)) of the pressure control valve by means of a characteristic diagram for the pressure control valve, wherein the nominal volume flow (VDV(SL)) of the pressure control valve is calculated as a function of a nominal injection quantity (QSL), alternatively, a nominal torque (MSL), and an engine speed (nMOT) by means of a characteristic diagram for the nominal volume flow, and wherein the characteristic diagram for the nominal volume flow is configured so that a nominal volume flow (VDV(SL)) having a positive value is calculated in a low-load range, and a nominal volume flow (VDV(SL)) of zero is calculated in a normal operating range.
A cutting element, comprising: a substrate having a central axis ; a polycrystalline table attached to the substrate at an interface region at an end of the polycrystalline table, wherein the geometry of a lateral side surface of the cutting element is asymmetric about all axes and planes intersecting with the cutting element; and an interface feature , the interface feature comprising a shape that is reflectively asymmetric about at least two planes defined by x, y, and z axes of a Cartesian coordinate system defined to align a z axis of the coordinate system with the central axis of the substrate and to locate a center of the coordinate system at a midpoint along an axial height of the asymmetric interface feature. a substrate having a central axis ; a polycrystalline table attached to the substrate at an interface region at an end of the polycrystalline table, wherein the geometry of a lateral side surface of the cutting element is asymmetric about all axes and planes intersecting with the cutting element; and an interface feature , the interface feature comprising a shape that is reflectively asymmetric about at least two planes defined by x, y, and z axes of a Cartesian coordinate system defined to align a z axis of the coordinate system with the central axis of the substrate and to locate a center of the coordinate system at a midpoint along an axial height of the asymmetric interface feature.
A CRF 1 receptor antagonist for use in a method of treating Congenital Adrenal Hyperplasia (CAH) in a subject, wherein the CRF 1 receptor antagonist is administered: (i) at bedtime, or (ii) at or 2 to 5 hours before the expected circadian release of adrenocorticotropic hormone (ACTH), wherein the expected circadian release of ACTH is between 1 and 2 am; and wherein the CRF 1 receptor antagonist is 4-(2-chloro-4-methoxy-5-methylphenyl)- N -[ -2-cyclopropyl-1-(3-fluoro-4-methylphenyl)ethyl]-5-methyl- N- (2-propyn-1-yl)-2-thiazolamine (SSR-125543) or 4-(2-chloro-4-methoxy-5-methylphenyl)- N -[ -2-cyclopropyl-1-(3-fluoro-4-methylphenyl)ethyl]-5-methyl- N- (2-propyn-1-yl)-2-thiazolamine, hydrochloride (SSR-125543A). (i) at bedtime, or (ii) at or 2 to 5 hours before the expected circadian release of adrenocorticotropic hormone (ACTH), wherein the expected circadian release of ACTH is between 1 and 2 am; and
A heat shrinkable film comprising at least a heat sealing layer as an inner layer, a barrier layer and an outer layer, wherein the heat sealing layer comprises a polypropylene polymer, wherein the polymer and the heat sealing layer have a vicat softening point of less than 100°C measured according to ASTM D 1525, wherein the polypropylene polymer of the heat sealing layer is blended with an ethylene alpha olefin copolymer which has a vicat softening point less than 100°C.