mhurhangee/ep-ind-claims huggingface dataset:
A battery module comprising: a cell block assembly (100, 200) comprising a battery cell stack in which a plurality of battery cells are stacked and a busbar frame mounted on at least one of the front and rear surfaces of the battery cell stack, a module frame that houses the cell block assembly (100, 200) and is opened in the front and rear surfaces, an upper plate that covers the upper surface and front and rear surfaces of the cell block assembly (100, 200); and a cross beam that is disposed adjacent to a side surface part of the upper plate covering the front and rear surfaces of the cell block assembly (100, 200), and is formed in a straight line shape, wherein the cell block assembly (100, 200) comprises a first cell block assembly and a second cell block assembly arranged side by side in a longitudinal direction of the battery cell, and wherein the first cell block assembly and the second cell block assembly are arranged separately from each other so that the busbar frames mounted on the first and second cell block assemblies face each other, characterized in that a coolant flow path is formed inside the cross beam, and the coolant flows through the coolant flow path. a cell block assembly (100, 200) comprising a battery cell stack in which a plurality of battery cells are stacked and a busbar frame mounted on at least one of the front and rear surfaces of the battery cell stack, a module frame that houses the cell block assembly (100, 200) and is opened in the front and rear surfaces, an upper plate that covers the upper surface and front and rear surfaces of the cell block assembly (100, 200); and a cross beam that is disposed adjacent to a side surface part of the upper plate covering the front and rear surfaces of the cell block assembly (100, 200), and is formed in a straight line shape, wherein the cell block assembly (100, 200) comprises a first cell block assembly and a second cell block assembly arranged side by side in a longitudinal direction of the battery cell, and wherein the first cell block assembly and the second cell block assembly are arranged separately from each other so that the busbar frames mounted on the first and second cell block assemblies face each other, characterized in that a coolant flow path is formed inside the cross beam, and the coolant flows through the coolant flow path.
A method for expanding blood adult stem cells comprising: isolating mononuclear cells from isolated blood; aggregate culturing of the isolated cells in a three-dimensional structure in an ultra-low attach culture dish; proliferating the three-dimensionally cultured cells to form cell aggregates having a spherical structure, wherein blood adult stem cells are contained and proliferated within cell aggregates; and dissociating the cell aggregates having a spherical structure into single cells. isolating mononuclear cells from isolated blood; aggregate culturing of the isolated cells in a three-dimensional structure in an ultra-low attach culture dish; proliferating the three-dimensionally cultured cells to form cell aggregates having a spherical structure, wherein blood adult stem cells are contained and proliferated within cell aggregates; and dissociating the cell aggregates having a spherical structure into single cells.
A compound of general formula Ib for use in the treatment of a disease characterised by amyloid deposition; wherein R is hydrogen or a substituted or unsubstituted linear or branched C 1-40 alkyl, aryl or heteroaryl, optionally substituted with one or more substituents selected from nitro, chloro, fluoro, bromo, nitrile, sulfonic acid or salt of sulfonic acid, carboxy, oxo (=0), aryl, heteroaryl, carboxyalkyl, carboxyalkoxy, carboxylalkylamino, carboxyalkylthio, C 1-6 alkoxy, di C 1-40 phosphonate, C 1-40 alkyl phosphonate, phosphonic acid, amino, amino C 1-40 alkyl or amino di (C 1-40 allcyl); X is O, S, or NR 1; wherein R 1 is a hydrogen, a linear or branched C 1-40 alkyl, C 2-40 alkenyl, or C 2-40 alkynyl, or aryl, a heteroaryl or C 1-40 alkylaryl or alkylheteroaryl; A and B are each independently OR 2, SR 2, NR 3, R 4 where R 2, R 3 and R 4 are each independently hydrogen, a linear or branched C 1-40 alkyl, C 2-40 alkenyl, C 2-40 alkynyl, C 1-40 allcylaryl or optionally a complex metal ion M n+ /n wherein n is an integer from 1 to 8, or a linear or branched C 1-40 NR 5 R 6 terminated alkyl chain, where R 5 and R 6 are each independently hydrogen, a linear or branched C 1-40 alkyl; and wherein D is hydrogen or a linear or branched C 1-40 alkyl, C 2-40 alkenyl, C 2-40 alkynyl, an aryl, a heteroaryl or C 1-40 alkylaryl or allcylheteroaryl or a linear or branched C 1-40 alkyl NR 5 R 6 chain or a linear or branched C 1-40 mono or di alkyl ester or di alkyl ester C 1-40 alkylphosphonate or a linear or branched C 1-40 alkylphosphonic acid, and Z is O, S or NR 1 and R 7 represents one or more ring substituents selected from a hydrogen, a halide, a linear or branched C 1-40 allcyl, a C 2-40 alkenyl, a C 2-40 alkynyl, an aryl, a heteroaryl or a C 1 - 40 alkylaryl or alkylheteroaryl, a nitrile, a sulphonic acid or salt of sulphonic acid, a carboxy, a carboxyalkyl, a carboxyalkoxy, a carboxyalkylamino, a carboxyallcylthio, an amide, a sulphonamide, a C 1-6 alkylalkoxy, C 1-6 alkylamino, OR 2, SR 2, NR 3, or R 4.
Method for routing in a multi-hop network, comprising, for at least one node (N 1,..., N 7) of the multi-hop network, the following steps: a/ acquiring a value of intensity of an electromagnetic field (E t, B t) within a vicinity of said node over a frequency band comprising first operating frequencies of the multi-hop network and second frequencies differing from the operating frequencies of the multi-hop network, b/ determining a ratio between said acquired value and a predefined electromagnetic field (E M, B M) threshold value of intensity, c/ selecting said node as a node for routing at least one message in the multi-hop network when the determined ratio indicates that the value of the intensity of the electromagnetic field (E t, B t) within the vicinity of said node is lower than the predefined electromagnetic field (E M, B M) threshold value of intensity. a/ acquiring a value of intensity of an electromagnetic field (E t, B t) within a vicinity of said node over a frequency band comprising first operating frequencies of the multi-hop network and second frequencies differing from the operating frequencies of the multi-hop network, b/ determining a ratio between said acquired value and a predefined electromagnetic field (E M, B M) threshold value of intensity, c/ selecting said node as a node for routing at least one message in the multi-hop network when the determined ratio indicates that the value of the intensity of the electromagnetic field (E t, B t) within the vicinity of said node is lower than the predefined electromagnetic field (E M, B M) threshold value of intensity.
A repellent delivery device, comprising: an integrally molded body comprising a hygroscopic base material, and at least one of an insecticide, and an insect repellant; and at least one support structure coupled between said integrally molded body and a trunk of a plant; said integrally molded body configured to release the at least one of the insecticide and the insect repellant into a root ball of the plant using ambient moisture. an integrally molded body comprising a hygroscopic base material, and at least one of an insecticide, and an insect repellant; and at least one support structure coupled between said integrally molded body and a trunk of a plant; said integrally molded body configured to release the at least one of the insecticide and the insect repellant into a root ball of the plant using ambient moisture.
A process for producing an intermediate emulsion comprising droplets of an aqueous oxidizer solution stabilized in a fuel by an emulsifier, which process comprises the steps of: (a) supplying to a laminar diffusion micromixer (i) an aqueous oxidizer solution and (ii) a fuel blend comprising a fuel and an emulsifier, which laminar diffusion micromixer provides for the contact of thin lamellae of oxidizer solution and fuel blend; (b) mixing in the laminar diffusion micromixer the aqueous oxidizer solution with the fuel blend so as to solubilise a portion of the aqueous oxidizer solution in the fuel blend to produce a precursor product; and (c) delivering the precursor product obtained in step (b) directly and without delay to another micromixer that imparts increased shear by periodical, alternating switches of flow from a high flow velocity to a low flow velocity, and mixing the precursor product using the another micromixer in one or more successive stages in order to form the intermediate emulsion, wherein the micromixer in step (a) and the micromixer in step (c) are individual devices, wherein in step (a) the aqueous oxidizer solution and fuel blend are metered into the micromixer at volume supply rates based on the required ratio of these components in the intermediate emulsion. (a) supplying to a laminar diffusion micromixer (i) an aqueous oxidizer solution and (ii) a fuel blend comprising a fuel and an emulsifier, which laminar diffusion micromixer provides for the contact of thin lamellae of oxidizer solution and fuel blend; (b) mixing in the laminar diffusion micromixer the aqueous oxidizer solution with the fuel blend so as to solubilise a portion of the aqueous oxidizer solution in the fuel blend to produce a precursor product; and (c) delivering the precursor product obtained in step (b) directly and without delay to another micromixer that imparts increased shear by periodical, alternating switches of flow from a high flow velocity to a low flow velocity, and mixing the precursor product using the another micromixer in one or more successive stages in order to form the intermediate emulsion, wherein the micromixer in step (a) and the micromixer in step (c) are individual devices, wherein in step (a) the aqueous oxidizer solution and fuel blend are metered into the micromixer at volume supply rates based on the required ratio of these components in the intermediate emulsion.
Intervertebral disc endoprosthesis, having an upper end plate and a lower end plate and a sliding bearing which is arranged between the end plates (1, 2) and is composed of sliding bodies (3, 4) that are designed to slide on each other, wherein both end plates (1, 2) are made of plastic and the sliding bodies (3, 4) are made of ceramic, the sliding bodies (3, 4) are encapsulated by the plastic of the end plates (1, 2), and the surface regions of the sliding bodies (3, 4) encapsulated by the plastic of the end plates (1, 2) have surface-area enlargements by comparison with flat surfaces, wherein the surface-area enlargements are clearances in the sliding bodies (3, 4), and the clearances are at least one circumferential groove on the outer circumference of the sliding bodies (3, 4), for use on a cervical spinal column or lumbar spinal column.
A method for producing a single-use cell culture container, which is at least partially made of polymer material, wherein the cell culture container has an outer layer of polyethylene with a thickness of 0.1 to 0.5 mm as well as a further inner layer of polyethylene or EVA, which is contacted by the cell culture to be cultivated and has a thickness of 0.1 to 0.5 mm, wherein the cell culture container is treated with gamma radiation for sterilization at irradiation doses of 25 to 50 kGy, characterised in that the cell culture container is treated with inert gas before the treatment with gamma radiation, whereby the amount of oxygen present is selected such that during the treatment of the cell culture container with gamma radiation aldehydes and ketones are generated in a concentration of 0.01 to 3 ppm, and wherein the treatment with gamma radiation is carried out in the presence of 0.05 to 15% oxygen.
A method for distributing a multimedia content by a distribution device to at least two rendering devices, characterized in that said multimedia content comprises at least two elementary contents wherein one elementary content is destined to one rendering device and the other elementary content is destinated to another rendering device, the method being performed by the distribution device and comprising: receiving a configuration file including information indicating for each of said at least two elementary contents a destination rendering device and synchronizing information comprising a starting time; for each rendering device associated with said multimedia content, sending a corresponding configuration file indicating a starting time for at least one elementary content destined to the rendering device; receiving said multimedia content; and sending said at least two elementary contents of said multimedia content to their corresponding destination rendering devices based on said information indicating a destination rendering device for each of said at least two elementary contents. receiving a configuration file including information indicating for each of said at least two elementary contents a destination rendering device and synchronizing information comprising a starting time; for each rendering device associated with said multimedia content, sending a corresponding configuration file indicating a starting time for at least one elementary content destined to the rendering device; receiving said multimedia content; and sending said at least two elementary contents of said multimedia content to their corresponding destination rendering devices based on said information indicating a destination rendering device for each of said at least two elementary contents.
A method of controlling a compressor, characterized in that the method comprises: after the compressor is stopped for protection, updating the number of protective stops of the compressor occurring during a current operation of an air conditioner; and when the number of protective stops of the compressor is greater than a first preset number, lowering a frequency of the compressor so that when the compressor restarts the compressor starts and operates at the lowered frequency. after the compressor is stopped for protection, updating the number of protective stops of the compressor occurring during a current operation of an air conditioner; and when the number of protective stops of the compressor is greater than a first preset number, lowering a frequency of the compressor so that when the compressor restarts the compressor starts and operates at the lowered frequency.
Rotary damper that is mounted to a first mass via a fastening part, a damper housing which surrounds an electro-magnetic damper motor disposed along a central axis of the rotary damper, an articulation lever connected to a second mass, and having a transmission for transmitting and/or converting a relative rotational movement between the masses to the damper motor for vibration damping, wherein the fastening part is connected via an elastomeric bearing with a bearing part on which the damper motor of the rotary damper is arranged, and wherein the damper housing is connected to the articulation lever, which is rotatably mounted opposite the bearing part, characterized in that the fastening part has an outside bearing surface, and that the bearing part has an inside bearing surface, wherein the elastomer bearing lies between the inside bearing surface on the bearing part and the outer bearing surface on the fastening part.
A fluid apparatus comprising: a hydraulic machine; a rotary electric machine connected to the hydraulic machine; a power conversion controller (13, 14) configured to convert power from the rotary electric machine; a cooler (36, 37) that cools the rotary electric machine; a temperature detector that is arranged to detect a temperature of the rotary electric machine; and a generator control unit configured to: continue a normal operation in a normal state; stop operation to continue a stopped condition in an anomalous state; and in a warning state that differs from the normal state and the anomalous state, perform a non-normal operation to extend a limited time of continued operation or cancel the warning state, wherein the power conversion controller (13, 14) is configured to transfer heat to the rotary electric machine, the temperature detector is spaced apart from the power conversion controller (13, 14), and when a temperature of at least one of the rotary electric machine or the power conversion controller (13, 14) exceeds a predetermined value, an operation point of the non-normal operation is changed to increase an effective head of the hydraulic machine. a hydraulic machine; a rotary electric machine connected to the hydraulic machine; a power conversion controller (13, 14) configured to convert power from the rotary electric machine; a cooler (36, 37) that cools the rotary electric machine; a temperature detector that is arranged to detect a temperature of the rotary electric machine; and a generator control unit configured to: continue a normal operation in a normal state; stop operation to continue a stopped condition in an anomalous state; and in a warning state that differs from the normal state and the anomalous state, perform a non-normal operation to extend a limited time of continued operation or cancel the warning state, wherein the power conversion controller (13, 14) is configured to transfer heat to the rotary electric machine, the temperature detector is spaced apart from the power conversion controller (13, 14), and when a temperature of at least one of the rotary electric machine or the power conversion controller (13, 14) exceeds a predetermined value, an operation point of the non-normal operation is changed to increase an effective head of the hydraulic machine. continue a normal operation in a normal state; stop operation to continue a stopped condition in an anomalous state; and in a warning state that differs from the normal state and the anomalous state, perform a non-normal operation to extend a limited time of continued operation or cancel the warning state, wherein the power conversion controller (13, 14) is configured to transfer heat to the rotary electric machine, the temperature detector is spaced apart from the power conversion controller (13, 14), and when a temperature of at least one of the rotary electric machine or the power conversion controller (13, 14) exceeds a predetermined value, an operation point of the non-normal operation is changed to increase an effective head of the hydraulic machine.
An implantable programmable stimulator system characterized by a plurality of waveform controllers, each waveform controller comprising: memory storing non-parametric waveform data comprising one or more waveforms; a playback system programmed to play back the non-parametric waveform data as one or more output waveforms based on retrieving the non-parametric waveform data from the memory; and an output system that is configured to drive at least one output channel based on the one or more output waveforms, the output system selecting the at least one output channel from a plurality of output channels in response to a selection signal. memory storing non-parametric waveform data comprising one or more waveforms; a playback system programmed to play back the non-parametric waveform data as one or more output waveforms based on retrieving the non-parametric waveform data from the memory; and an output system that is configured to drive at least one output channel based on the one or more output waveforms, the output system selecting the at least one output channel from a plurality of output channels in response to a selection signal.
A construction element for forming an expansion joint, wherein the construction element acts as a physical and chemical barrier to impede the ingress of insects into a structure, the construction element comprising a polymeric foam containing at least one insecticide substantially distributed throughout the polymeric foam; and wherein the polymeric foam has a cell size of approximately 0.5 to 2 mm, optionally 0.5 mm to 1 mm; and wherein the polymeric foam has a density of between 23 to 28 kg/m 3; and wherein the polymeric foam is closed cell polymeric foam; characterised in that, on at least one outer surface of the construction element there is a water resistant adhesive attached thereto and a removable cover releasably attached to the adhesive whereby the removable cover is adapted to be removed upon application of the construction element; wherein the polymeric foam has a compression set at 22 hours of less than 6%; and wherein the polymeric foam comprises primarily linear low density polyethylene (LLDPE) and low melting ethylene-vinyl acetate.
A process for preparing a salt of ibrutinib of formula I with sulphuric acid in a solid form. characterized in that 1-[ -3-[4-amino-3-(4-phenoxyphenyl)-1H-pyrazolo[3,4-d]pyrimidin-1-yl]piperidin-1-yl]prop-2-en-1-one is mixed with sulphuric acid and a solvent, wherein the solvent is selected either a. from a C1 to C4 alcohol, from which ibrutinib sulphate in a crystalline form, which exhibits a peak with the maximum at 123°C in the DSC record is obtained, whereupon crystallization follows, or b. from C3 to C7 ketones, from which amorphous ibrutinib sulphate is precipitated by addition of an antisolvent selected from methyl tert -butyl ether. a. from a C1 to C4 alcohol, from which ibrutinib sulphate in a crystalline form, which exhibits a peak with the maximum at 123°C in the DSC record is obtained, whereupon crystallization follows, or b. from C3 to C7 ketones, from which amorphous ibrutinib sulphate is precipitated by addition of an antisolvent selected from methyl tert -butyl ether.
An apparatus for actuating a first engine valve (116, 216b) associated with a cylinder of an internal combustion engine, the internal combustion engine further comprising a first motion transfer mechanism (112, 210, 400) for transferring motion from a first motion source (110, 202) to the first engine valve and a second motion transfer mechanism (122, 232, 234, 236) for transferring motion from a second motion source (120, 220) to at least one second motion sink (126, 238, 240), wherein the first motion source and the second motion source are uniquely associated with the cylinder, the apparatus comprising: a third motion transfer mechanism (130, 242, 244, 246), configured to be operatively connected to the second motion source and the first engine valve, and further configured to transfer motion from the second motion source to the first engine valve; a motion decoupler, configured to be operatively connected to the first motion transfer mechanism and the first valve, and further configured to selectively discontinue transfer of motion from the first motion transfer mechanism to the first valve; and a reset mechanism (132, 252, 324, 326), configured to be operatively connected to the second motion transfer mechanism and the third motion transfer mechanism, and further configured to selectively discontinue transfer of motion from the third motion transfer mechanism to the first engine valve based on operation of the second motion transfer mechanism. a third motion transfer mechanism (130, 242, 244, 246), configured to be operatively connected to the second motion source and the first engine valve, and further configured to transfer motion from the second motion source to the first engine valve; a motion decoupler, configured to be operatively connected to the first motion transfer mechanism and the first valve, and further configured to selectively discontinue transfer of motion from the first motion transfer mechanism to the first valve; and a reset mechanism (132, 252, 324, 326), configured to be operatively connected to the second motion transfer mechanism and the third motion transfer mechanism, and further configured to selectively discontinue transfer of motion from the third motion transfer mechanism to the first engine valve based on operation of the second motion transfer mechanism.