mhurhangee/ep-ind-claims huggingface dataset:
A method for treatment of a bottomhole formation zone characterized by sequential treatment of the bottomhole formation zone with an emulsion, limiting water inflows by artificially reducing permeability of highly permeable intervals of a reservoir, an oil pack, which is a buffer and preventing the interaction of the emulsion with an acid composition, which is injected after, characterized in that wettability of reservoir rocks in the bottomhole formation zone is preliminarily determined, and in the case of hydrophilicity of the reservoir rocks a direct type of the emulsion with the following composition is used, % mass.: - hydrocarbon phase - 20-25, - emulsifier - 3-5, - colloidal silicon dioxide nanoparticles - 0.5-3, - aqueous phase - the balance, in the case of hydrophobicity of the reservoir rocks the invert type of the emulsion of the following composition is used, % mass.: - hydrocarbon phase - 40-45, - emulsifier - 3-5, - colloidal silicon dioxide nanoparticles -1-3, - aqueous phase - the balance. - hydrocarbon phase - 20-25, - emulsifier - 3-5, - colloidal silicon dioxide nanoparticles - 0.5-3, - aqueous phase - the balance, - hydrocarbon phase - 40-45, - emulsifier - 3-5, - colloidal silicon dioxide nanoparticles -1-3, - aqueous phase - the balance.
A liner configured to be used with an infant feeding thermal treatment system, the liner comprising a flexible receptacle defining an interior and a rim member defining a receptacle opening for airflow from the thermal treatment system to pass into and then out of said interior, characterized in that said rim member has a first portion and a widened second portion extending from said first portion and in that said liner comprises a port formed in said widened second portion of said rim member, said port being adapted to allow an elongated cylindrical container to be passed at least partially therethrough and into said receptacle interior.
A method for inspecting the product of a coating process wherein a barrier coating has been applied to the interior surface of a vessel to form a coated surface, the vessel being made of a cyclic olefin copolymer, a cyclic olefin polymer, a polypropylene homopolymer, a polypropylene copolymer, or a combination or interpolymer thereof, the method comprising the steps: (a) preparing the barrier coating on the interior surface of the vessel by PECVD from an organosilicon precursor under vacuum conditions; (b) providing the coated vessel as inspection object; (c) exposing the interior of the coated vessel to a charging gas and thus charging the coated surface with said charging gas, the charging gas being carbon dioxide; (e) measuring the subsequent release of the charging gas from the coated vessel as a part of the total release of volatile species into the interior of the coated vessel by measuring the mass flow rate or volume flow rate of the volatile species; and (f) comparing the result of step (e) with the result of step (e) for at least one reference object measured under the same test conditions, thus determining the presence or absence of the barrier coating. (a) preparing the barrier coating on the interior surface of the vessel by PECVD from an organosilicon precursor under vacuum conditions; (b) providing the coated vessel as inspection object; (c) exposing the interior of the coated vessel to a charging gas and thus charging the coated surface with said charging gas, the charging gas being carbon dioxide; (e) measuring the subsequent release of the charging gas from the coated vessel as a part of the total release of volatile species into the interior of the coated vessel by measuring the mass flow rate or volume flow rate of the volatile species; and (f) comparing the result of step (e) with the result of step (e) for at least one reference object measured under the same test conditions, thus determining the presence or absence of the barrier coating.
A method for producing a semiconductor device by directly bonding silver oxide (520; 620; 720) provided on a surface of a base (500; 600; 700) and silver (140; 240; 340) provided on a surface of a semiconductor element (100; 200; 300), the method comprising the steps of: arranging the semiconductor element (100; 200; 300) on the base (500; 600; 700) such that the silver (140; 240; 340) provided on the surface of the semiconductor element (100; 200; 300) is in contact with the silver oxide provided on the surface of the base (500; 600; 700), temporarily bonding the semiconductor element (100; 200; 300) and the base (500; 600; 700) by applying a pressure or an ultrasonic vibration to the semiconductor element (100; 200; 300) or the base (500; 600; 700), and permanently bonding the semiconductor element (100; 200; 300) and the base (500; 600; 700) by applying heat having a temperature of 150 to 900°C to the semiconductor element (100; 200; 300) and the base (500; 600; 700); wherein the step of temporarily bonding and the step of permanently bonding may be performed simultaneously; wherein the surface of the base (500; 600; 700) and the surface of the semiconductor element (100; 200; 300) are silver-coated by silver sputtering, silver vapour deposition or silver plating; and wherein the silver oxide is provided on the surface of the base (500; 600; 700) by oxidizing the silver-coated surface on the entire base (500; 600; 700) or a part of the base (500; 600; 700) on which the semiconductor element (100; 200; 300) is to be mounted through oxygen plasma or UV-irradiation. arranging the semiconductor element (100; 200; 300) on the base (500; 600; 700) such that the silver (140; 240; 340) provided on the surface of the semiconductor element (100; 200; 300) is in contact with the silver oxide provided on the surface of the base (500; 600; 700), temporarily bonding the semiconductor element (100; 200; 300) and the base (500; 600; 700) by applying a pressure or an ultrasonic vibration to the semiconductor element (100; 200; 300) or the base (500; 600; 700), and permanently bonding the semiconductor element (100; 200; 300) and the base (500; 600; 700) by applying heat having a temperature of 150 to 900°C to the semiconductor element (100; 200; 300) and the base (500; 600; 700); wherein the step of temporarily bonding and the step of permanently bonding may be performed simultaneously; wherein the surface of the base (500; 600; 700) and the surface of the semiconductor element (100; 200; 300) are silver-coated by silver sputtering, silver vapour deposition or silver plating; and wherein the silver oxide is provided on the surface of the base (500; 600; 700) by oxidizing the silver-coated surface on the entire base (500; 600; 700) or a part of the base (500; 600; 700) on which the semiconductor element (100; 200; 300) is to be mounted through oxygen plasma or UV-irradiation.
A compound of formula or a pharmaceutically acceptable salt, tautomer(s), stereo-isomeric form, solvate or polymorph thereof, for use in treating viral infections, wherein R 1 is selected from hydrogen, halogen, -CH 3 or -CF 3, R 2 is selected from hydrogen, halogen, C 1-6 alkyl or C 3-6 cycloalkyl, R 3 is C 1-8 alkyl optionally substituted by one or more substituents independently selected from aryl, aryloxy, halogen, hydroxyl, alkylamino, dialkylamino, C 1 - 6 alkenyl, C 1 - 6 alkoxy, carboxylic acid, carboxylic ester, carboxylic amide, nitrile, sulfonamide, sulfamide, acyl sulfonamide, or R 3 is an alkylaryl optionally substituted by one or more substituents independently selected from aryl, aryloxy, halogen, alkylamino, dialkylamino, C 1-6 alkyl, C 1-6 alkenyl, C 1-6 alkoxy, carboxylic acid, carboxylic ester, carboxylic amide, nitrile, sulfonamide, sulfamide, or acyl sulfonamide. R 1 is selected from hydrogen, halogen, -CH 3 or -CF 3, R 2 is selected from hydrogen, halogen, C 1-6 alkyl or C 3-6 cycloalkyl, R 3 is C 1-8 alkyl optionally substituted by one or more substituents independently selected from aryl, aryloxy, halogen, hydroxyl, alkylamino, dialkylamino, C 1 - 6 alkenyl, C 1 - 6 alkoxy, carboxylic acid, carboxylic ester, carboxylic amide, nitrile, sulfonamide, sulfamide, acyl sulfonamide, or R 3 is an alkylaryl optionally substituted by one or more substituents independently selected from aryl, aryloxy, halogen, alkylamino, dialkylamino, C 1-6 alkyl, C 1-6 alkenyl, C 1-6 alkoxy, carboxylic acid, carboxylic ester, carboxylic amide, nitrile, sulfonamide, sulfamide, or acyl sulfonamide.
A method of managing keys in a key distribution system for a communications group, the key distribution system maintaining a tree of nodes including at least one leaf node that has a parent node, each node being associated with a respective first key, the communication group comprising at least one member that is associated with a leaf node of the tree of nodes; the method comprising: the system updating the first keys of a first branch of nodes in the tree by allocating new first keys to each of the nodes in the branch; characterised in that the method further comprises the system determining offsets for generating the updated first key of each node in the branch from the child node in the branch; and broadcasting each of said offsets so that, given the updated first key associated with the leaf node of said branch, each updated first key of said branch of nodes is calculable using a received offset, wherein information transferred to, from or between members of the communication group is encrypted using an application data encryption key, the encryption key comprising a join field and a leave field, wherein each member of the group knows the join field of the encryption key, and wherein the leave field of the encryption key is derived from the first key of a root node of the tree. the system updating the first keys of a first branch of nodes in the tree by allocating new first keys to each of the nodes in the branch; characterised in that the method further comprises the system determining offsets for generating the updated first key of each node in the branch from the child node in the branch; and broadcasting each of said offsets so that, given the updated first key associated with the leaf node of said branch, each updated first key of said branch of nodes is calculable using a received offset, wherein information transferred to, from or between members of the communication group is encrypted using an application data encryption key, the encryption key comprising a join field and a leave field, wherein each member of the group knows the join field of the encryption key, and wherein the leave field of the encryption key is derived from the first key of a root node of the tree.
A single wire signal regeneration transmitting apparatus, wherein the single wire signal regeneration transmitting apparatus receives a serial packet including a plurality of signal segments, each of the signal segments includes a data field and a stuff time symbol, each of the data fields includes multiple logic 0 and 1 signal symbols, with accumulated numbers of the logic 0 and 1 signal symbols together being the same in each of the data fields, each of the data fields is followed by a single stuff time symbol, the single wire signal regeneration transmitting apparatus is adapted to process the serial packet to sequentially output the signal segments, and after the single wire signal regeneration transmitting apparatus outputs the data field from the signal segment currently received, the single wire signal regeneration transmitting apparatus outputs the stuff time symbols continuously until starting to receive the next signal segment in the received serial packet, wherein when the single wire signal regeneration transmitting apparatus processes the signal segment currently received, the single wire signal regeneration transmitting apparatus counts the logic 0 and 1 signal symbols together in the data field of the signal segment currently received in order to generate a counting number before matching the counting number with a preset number, if the counting number does not match the preset number, the single wire signal regeneration transmitting apparatus stops outputting any signal segments until the single wire signal regeneration transmitting apparatus is reset and then the single wire signal regeneration transmitting apparatus receives and processes the next signal segment received normally.
A configurable battery pack comprising an integrated battery management system and a data interface and a user interface, wherein the battery management system comprises a data memory for storing at least one battery charging parameter (U LS) and provides at the data interface the at least one battery charging parameter (U LS) for an external charger, and wherein at least one battery charging parameter (U LS) can be configured via an input to the user interface, wherein a usable total capacity of the battery pack can be configured via the input to the user interface.
A vehicle comprising: a front modular assembly including: at least one front wheel, a steering assembly to steer the at least one front wheel, a throttle to drive the vehicle, and a power source configured to generate a power signal; a rear modular assembly removably couplable to the front modular assembly, the rear modular assembly including: at least one rear wheel, a brake selectively coupled to the at least one rear wheel, and at least one rear light configured to emit light while receiving the power signal, the at least one rear light and the brake being in electrical communication with the power source via a shared electrical connection while the rear modular assembly is coupled to the front modular assembly; and a controller in electrical communication with the power source, the controller being configured to selectively provide the power signal to the brake and the rear light via the shared electrical connection; wherein the controller includes a storage device that stores residual energy from the power signal while the throttle is activated and wherein the controller causes the at least one rear light to receive the residual energy from the power signal for a residual energy light emission time period after the throttle is released. a front modular assembly including: at least one front wheel, a steering assembly to steer the at least one front wheel, a throttle to drive the vehicle, and a power source configured to generate a power signal; at least one front wheel, a steering assembly to steer the at least one front wheel, a throttle to drive the vehicle, and a power source configured to generate a power signal; a rear modular assembly removably couplable to the front modular assembly, the rear modular assembly including: at least one rear wheel, a brake selectively coupled to the at least one rear wheel, and at least one rear light configured to emit light while receiving the power signal, the at least one rear light and the brake being in electrical communication with the power source via a shared electrical connection while the rear modular assembly is coupled to the front modular assembly; and at least one rear wheel, a brake selectively coupled to the at least one rear wheel, and at least one rear light configured to emit light while receiving the power signal, the at least one rear light and the brake being in electrical communication with the power source via a shared electrical connection while the rear modular assembly is coupled to the front modular assembly; and a controller in electrical communication with the power source, the controller being configured to selectively provide the power signal to the brake and the rear light via the shared electrical connection; wherein the controller includes a storage device that stores residual energy from the power signal while the throttle is activated and wherein the controller causes the at least one rear light to receive the residual energy from the power signal for a residual energy light emission time period after the throttle is released.
A system for predicting performance of a liquid fuel system, comprising: a processor; a memory communicatively coupled to the processor, wherein the memory stores instructions which when executed by the processor perform operations comprising: establishing a baseline parameter for at least one physical parameter of a nozzle or a valve associated with at least one combustor of the liquid fuel system with at least one time; obtaining one or more operational parameters associated with the liquid fuel system from one or more sensors during operation of a gas turbine engine; generating an operational model of a fuel flow divider based at least on the baseline parameter and the one or more operational parameters; utilizing the operational model of the fuel flow divider to predict the performance of the liquid fuel system; and utilising the predicted performance of the liquid fuel system to output an action associated with the liquid fuel system. a processor; a memory communicatively coupled to the processor, wherein the memory stores instructions which when executed by the processor perform operations comprising: establishing a baseline parameter for at least one physical parameter of a nozzle or a valve associated with at least one combustor of the liquid fuel system with at least one time; obtaining one or more operational parameters associated with the liquid fuel system from one or more sensors during operation of a gas turbine engine; generating an operational model of a fuel flow divider based at least on the baseline parameter and the one or more operational parameters; utilizing the operational model of the fuel flow divider to predict the performance of the liquid fuel system; and utilising the predicted performance of the liquid fuel system to output an action associated with the liquid fuel system. establishing a baseline parameter for at least one physical parameter of a nozzle or a valve associated with at least one combustor of the liquid fuel system with at least one time; obtaining one or more operational parameters associated with the liquid fuel system from one or more sensors during operation of a gas turbine engine; generating an operational model of a fuel flow divider based at least on the baseline parameter and the one or more operational parameters; utilizing the operational model of the fuel flow divider to predict the performance of the liquid fuel system; and utilising the predicted performance of the liquid fuel system to output an action associated with the liquid fuel system.
Electrode, especially cathode, for an electrochemical energy storage means, especially for a lithium cell, comprising particles including a first lithiatable active material based on a transition metal oxide, wherein - the particles or - a main body including the particles has/have been provided at least partly with a functional layer which is lithium ion-conducting and includes at least one redox-active element, and wherein at least a multitude of the particles and/or the main body also includes at least one second lithiatable active material doped with at least one redox-active doping element, especially with the redox-active element from the functional layer, characterized in that the main body has a gradient of the redox-active doping element that points in its thickness direction. - the particles or - a main body including the particles has/have been provided at least partly with a functional layer which is lithium ion-conducting and includes at least one redox-active element,
An article of footwear, comprising: a sole structure (102, 1502, 1602), the sole structure (102, 1502, 1602) comprising: an intermediate component; and a bottom component, the sole structure (102, 1502, 1602) having a toe region, a forefoot region, a midfoot region, and a heel region, the sole structure (102, 1502, 1602) having a medial side and a lateral side, the intermediate component having a top surface, a bottom surface, and a protruding portion that forms a concave contour on the top surface of the intermediate component and a corresponding convex contour on the bottom surface of the intermediate component, the protruding portion including at least a first portion that forms a continuous trough at least from the medial side of the forefoot region through the midfoot region to the lateral side of the heel region, the bottom component having a top surface, a bottom surface, and a protruding portion that forms a concave contour on the top surface of the bottom component and a corresponding convex contour on the bottom surface of the bottom component, the protruding portion including at least a first portion that forms a continuous trough at least from the medial side of the forefoot region through the midfoot region to the lateral side of the heel region, the top surface of the bottom component contacting the bottom surface of the intermediate component, the first portion of the bottom component being aligned with the first portion of the intermediate component, and the bottom surface of the bottom component being configured to engage a ground surface, the bottom component further having a variable thickness profile that forms a continuous ridge on the bottom surface of the bottom component, the ridge extending from the medial side of the forefoot region through the midfoot region to the lateral side of the heel region, the ridge being substantially aligned with the first portion of the intermediate component and the first portion of the bottom component.
Method for operating a vehicle drivetrain having an internal combustion engine and having a transmission device which is operatively connected, in the region of a transmission input shaft, to the internal combustion engine and which has a positively locking shift element, one shift element half of which is operatively connected to the transmission input shaft and the other shift element half of which is operatively connected to a transmission output shaft, wherein, in the presence of a demand for transferring the transmission device from a neutral operating state ("N"), in which a power flow is interrupted in the region of the transmission device, into an operating state in which the power flow is established in the region of the transmission device, the positively locking shift element is transferred into a closed operating state, wherein, by variation of a rotational speed (n_2) of the internal combustion engine, a rotational speed difference between the shift element halves (A6, A7) of the positively locking shift element is adjusted into a rotational speed difference window within which the positively locking shift element can be transferred into the closed operating state, characterized in that, in the neutral operating state ("N") of the transmission device, a further positively locking shift element is held in a closed state.