mhurhangee/ep-ind-claims huggingface dataset:
A positive electrode for a lithium secondary battery, the positive electrode comprising: a safety function layer arranged on a positive electrode current collector; and a positive electrode mixture layer arranged on the safety function layer, wherein the safety function layer is formed of a multi-layer structure of two or more layers including a first safety function layer contacting the positive electrode current collector, and a second safety function layer arranged on the first safety function layer, and wherein the second safety function layer is obtained by mixing a composition of the first safety function layer with a composition of the positive electrode mixture layer; wherein the first safety function layer includes a first positive electrode active material, and the positive electrode mixture layer includes a second positive electrode active material which is different from the first positive electrode active material; wherein the second safety function layer contains the first positive electrode active material, the second positive electrode active material, and a binder, wherein a content of a binder included in the first safety function layer corresponds to 5 to 30 wt% of a total weight of the first safety function layer. a safety function layer arranged on a positive electrode current collector; and a positive electrode mixture layer arranged on the safety function layer, wherein the safety function layer is formed of a multi-layer structure of two or more layers including a first safety function layer contacting the positive electrode current collector, and a second safety function layer arranged on the first safety function layer, and wherein the second safety function layer is obtained by mixing a composition of the first safety function layer with a composition of the positive electrode mixture layer; wherein the first safety function layer includes a first positive electrode active material, and the positive electrode mixture layer includes a second positive electrode active material which is different from the first positive electrode active material; wherein the second safety function layer contains the first positive electrode active material, the second positive electrode active material, and a binder, wherein a content of a binder included in the first safety function layer corresponds to 5 to 30 wt% of a total weight of the first safety function layer.
Packaging system, comprising a thermoformed container (1;3,4), having a container base and a container wall, and a thermoformed container lid (2;5,6), having a lid base and a lid wall; - wherein at the container (1;3,4) at least one catch segment is formed projecting in a radial direction; and - the at least one catch segment is formed at least partially parallel to the container base; - wherein a circumferential sealing edge is formed at the side of the container wall opposite to the container base; - wherein at the container lid (2;5,6) at least one threaded segment is formed projecting in a radial direction; and - wherein the at least one threaded segment is formed at least partially parallel to the container base and is inclined at least partially with respect to the container base, characterised in that the container (1,3,4) is tightly sealed in the manner of an originality seal by means of a sealing film and in that the sealing film is arranged at the sealing edge of the container (1, 3, 4), sealing at a sealing surface and is located between lid and container when the container (1,3,4) is closed with the container lid and in that for improvement of the sealing effect at the container lid on the inside, which means on the side facing the container (1,3,4), a circumferential annular bead is formed and container (1,3,4) and container lid are matched to each other in such a manner that, when the container lid is closed, the annular bead is pressed onto the sealing film in a sealing manner while elastically deforming the container lid. - wherein at the container (1;3,4) at least one catch segment is formed projecting in a radial direction; and - the at least one catch segment is formed at least partially parallel to the container base; - the at least one catch segment is formed at least partially parallel to the container base; - wherein a circumferential sealing edge is formed at the side of the container wall opposite to the container base; - wherein at the container lid (2;5,6) at least one threaded segment is formed projecting in a radial direction; and - wherein the at least one threaded segment is formed at least partially parallel to the container base and is inclined at least partially with respect to the container base, - wherein the at least one threaded segment is formed at least partially parallel to the container base and is inclined at least partially with respect to the container base, the container (1,3,4) is tightly sealed in the manner of an originality seal by means of a sealing film and in that the sealing film is arranged at the sealing edge of the container (1, 3, 4), sealing at a sealing surface and is located between lid and container when the container (1,3,4) is closed with the container lid and in that for improvement of the sealing effect at the container lid on the inside, which means on the side facing the container (1,3,4), a circumferential annular bead is formed and container (1,3,4) and container lid are matched to each other in such a manner that, when the container lid is closed, the annular bead is pressed onto the sealing film in a sealing manner while elastically deforming the container lid.
Sealing system for a turbomachine, in particular for a compressor (4; 6) of an axial turbomachine, the system comprising: - a shroud; - a rotor which is arranged inside the shroud, and which has an axis of rotation and at least one circular brush seal, the bristles of which extend mainly radially; the shroud has an annular groove adjusted to the axial thickness E of the brush seal, said thickness E being measured axially against the bristles of the brush seal; characterized in that the annular groove has an axial width L, and the axial thickness E of the brush seal represents the majority of the axial width L, the axial thickness E extending at least over 75% of the width L. - a shroud; - a rotor which is arranged inside the shroud, and which has an axis of rotation and at least one circular brush seal, the bristles of which extend mainly radially;
A shear ram assembly for shearing a pipe, comprising: first and second ram blocks (13, 51), each having a blade (17, 63), the blades (17,63) being positioned such that one slides over the other when the first and second ram blocks (13, 51) are moved forward to a closed position; a pair of guide arms protruding from the first ram block toward the second ram block, each of the guide arms being located at an elevation on the first ram block that is lower than the blade on the first ram black; and each of the guide arms having a tip and a wedge surface on an inboard side of each of the guide arms, each of the wedge surfaces extending from the tip and converging in a direction toward the first ram block for centering the pipe when the first and second ram blocks (13, 51) are moved to the closed position. first and second ram blocks (13, 51), each having a blade (17, 63), the blades (17,63) being positioned such that one slides over the other when the first and second ram blocks (13, 51) are moved forward to a closed position; a pair of guide arms protruding from the first ram block toward the second ram block, each of the guide arms being located at an elevation on the first ram block that is lower than the blade on the first ram black; and each of the guide arms having a tip and a wedge surface on an inboard side of each of the guide arms, each of the wedge surfaces extending from the tip and converging in a direction toward the first ram block for centering the pipe when the first and second ram blocks (13, 51) are moved to the closed position.
An encoder system adapted for use in print architecture comprising: a codewheel coupled to a rotating print architecture element; a first encoder sensor mounted at a first position relative to the periphery of said codewheel, said first encoder sensor adapted to output a first output signal; a second encoder sensor mounted at a second position relative to the periphery of said codewheel, said second encoder sensor adapted to output a second output signal, and said second encoder sensor positioned substantially 180 degrees relative to said first encoder sensor; and a logic correction circuit adapted to receive said first and second output signals, the logic control circuit comprising a first up counter to generate a first digital count signal the count of which is indicative of a period of the first output signal a second up counter to generate a second digital count signal the count of which is indicative of a period of the second output signal and a combinatorial logic element adapted to output a correction signal with a period that is an average of the periods of said first and second output signals. a codewheel coupled to a rotating print architecture element; a first encoder sensor mounted at a first position relative to the periphery of said codewheel, said first encoder sensor adapted to output a first output signal; a second encoder sensor mounted at a second position relative to the periphery of said codewheel, said second encoder sensor adapted to output a second output signal, and said second encoder sensor positioned substantially 180 degrees relative to said first encoder sensor; and a logic correction circuit adapted to receive said first and second output signals, the logic control circuit comprising a first up counter to generate a first digital count signal the count of which is indicative of a period of the first output signal a second up counter to generate a second digital count signal the count of which is indicative of a period of the second output signal and a combinatorial logic element adapted to output a correction signal with a period that is an average of the periods of said first and second output signals.
A liquid cosmetic comprising, at least, 1 to 20 % by mass of high-brightness particles, selected from the following group A, 2 to 10 % by mass of film-forming resin, 0.3 to 2 % by mass of at least one anionic polymer compound having a thickening effect selected from the following group B; and water, wherein the viscosity at 25 °C and a shear rate of 76.8 s -1 in an EMD type viscometer falls within the range of 250 to 1,000 mPa • s; Group A: mica-titanium, metal-coated mica-titanium, metal-coated glass powder, metal oxide-coated glass powder, metal oxide-coated synthetic phlogopite, argentine, bismuth oxychloride, polyethylene terephthalate•aluminum•epoxy laminate powder, polyethylene terephthalate•polyolefin laminate film powder, and polyethylene terephthalate•polymethyl methacrylate laminate film powder; Group B: methylvinyl ether/maleic acid crosspolymer, and acrylates/acrylate ester of alkyl having 10 to 30 carbon atoms crosspolymer. Group A: mica-titanium, metal-coated mica-titanium, metal-coated glass powder, metal oxide-coated glass powder, metal oxide-coated synthetic phlogopite, argentine, bismuth oxychloride, polyethylene terephthalate•aluminum•epoxy laminate powder, polyethylene terephthalate•polyolefin laminate film powder, and polyethylene terephthalate•polymethyl methacrylate laminate film powder; Group B: methylvinyl ether/maleic acid crosspolymer, and acrylates/acrylate ester of alkyl having 10 to 30 carbon atoms crosspolymer.
A storage device including a plurality of components, the storage device (100; 1300a, 1300b; 2200; 3200) comprising: a memory (120; 130; 1320a, 1320b; 2220; 3230; 4000); and a storage controller (110; 420; 1310a, 1310b; 2210; 3100) configured to: detect an error event indicating that an error has occurred in at least one component among the plurality of components, generate (S300; S30) log data about at least one context of a plurality of contexts of the at least one component in response to the error event, control the memory (120; 130; 1320a, 1320b; 2220; 3230; 4000) to store (S400; S40) the log data, transmit an asynchronous event request signal to a host (200; 410; 2100) after the storing operation, receive (S600; S10) a get log page command (GLPC) from the host (200; 410; 2100), transmit (S800; S60) the log data to the host (200; 410; 2100) in response to the get log page command (GLPC), and characterized by the log data consisting of the at least one context, but not all of the plurality of contexts, and the get log page command (GLPC) including selection information for selecting the at least one component. a memory (120; 130; 1320a, 1320b; 2220; 3230; 4000); and a storage controller (110; 420; 1310a, 1310b; 2210; 3100) configured to: detect an error event indicating that an error has occurred in at least one component among the plurality of components, generate (S300; S30) log data about at least one context of a plurality of contexts of the at least one component in response to the error event, control the memory (120; 130; 1320a, 1320b; 2220; 3230; 4000) to store (S400; S40) the log data, transmit an asynchronous event request signal to a host (200; 410; 2100) after the storing operation, receive (S600; S10) a get log page command (GLPC) from the host (200; 410; 2100), transmit (S800; S60) the log data to the host (200; 410; 2100) in response to the get log page command (GLPC), and characterized by the log data consisting of the at least one context, but not all of the plurality of contexts, and the get log page command (GLPC) including selection information for selecting the at least one component. detect an error event indicating that an error has occurred in at least one component among the plurality of components, generate (S300; S30) log data about at least one context of a plurality of contexts of the at least one component in response to the error event, control the memory (120; 130; 1320a, 1320b; 2220; 3230; 4000) to store (S400; S40) the log data, transmit an asynchronous event request signal to a host (200; 410; 2100) after the storing operation, receive (S600; S10) a get log page command (GLPC) from the host (200; 410; 2100), transmit (S800; S60) the log data to the host (200; 410; 2100) in response to the get log page command (GLPC), and characterized by the log data consisting of the at least one context, but not all of the plurality of contexts, and the get log page command (GLPC) including selection information for selecting the at least one component.
Glove box with a housing sealed hermetically from the environment in whose interior gloves (50, 51) are arranged which are accessible from the exterior in order to be able to handle dangerous substances and objects located inside the housing, wherein the housing is provided with ports to provide access to tools, auxiliary power units needed for the handling process and/or locks for introducing the dangerous substances and objects into the interior, characterised in that the housing is designed as a folding box wherein the housing has a front wall, two side walls (5, 6, 7, 8) and a housing cover made from an inherently stiff material and which are connected together so that they fold by strips of fabric tape, in particular from coated polyester fabric to form folding edges.
A composition for use in a treatment of pulmonary fibrosis, comprising a carrier comprising a retinoid as a targeting agent and a drug that controls the activity or growth of extracellular matrix-producing cells in the lung, wherein the retinoid has a skeleton in which four isoprenoid units are bonded in a head-to-tail manner, wherein the drug that controls the activity or growth of extracellular matrix-producing cells in the lung is selected from the group consisting of: (i) an agent selected from the group consisting of an siRNA, a ribozyme, an anti-sense nucleic acid, and a DNA/RNA chimeric polynucleotide, which targets molecules involved in the production or secretion of said extracellular matrix constituent molecules, wherein said molecule involved in the production or secretion of said extracellular matrix constituent molecules is HSP 47, or a substance selected from the group consisting of an siRNA, a ribozyme, and an anti-sense nucleic acid, wherein the substance suppresses the production and secretion of an extracellular matrix component selected from collagen, proteoglycan, tenascin, fibronectin, thrombospondin, osteonectin and elastin and (ii) a vector that expresses said siRNA, said ribozyme, said anti-sense nucleic acid, and/or said DNA/RNA chimeric polynucleotide. (i) an agent selected from the group consisting of an siRNA, a ribozyme, an anti-sense nucleic acid, and a DNA/RNA chimeric polynucleotide, which targets molecules involved in the production or secretion of said extracellular matrix constituent molecules, wherein said molecule involved in the production or secretion of said extracellular matrix constituent molecules is HSP 47, or a substance selected from the group consisting of an siRNA, a ribozyme, and an anti-sense nucleic acid, wherein the substance suppresses the production and secretion of an extracellular matrix component selected from collagen, proteoglycan, tenascin, fibronectin, thrombospondin, osteonectin and elastin and (ii) a vector that expresses said siRNA, said ribozyme, said anti-sense nucleic acid, and/or said DNA/RNA chimeric polynucleotide.
A combustion device (C, D) which burns fuel ammonia in a combustor using combustion air, the combustion device comprising: a catalyst reduction unit which is configured to reduce nitrogen oxides in a combustion exhaust gas supplied from the combustor; an ammonia supply unit which is configured to supply the fuel ammonia to the combustor and is configured to supply reducing ammonia to the catalyst reduction unit; an ammonia supply passage through which the fuel ammonia is supplied to the combustor; and a reducing agent supply passage through which the reducing ammonia is supplied to the catalyst reduction unit, wherein a pressure of the reducing ammonia is controlled by the ammonia supply unit such that the pressure of the reducing ammonia is lower than a pressure of the fuel ammonia, characterized by further comprising: an ammonia flow branch passage which branches from the ammonia supply passage, via which the ammonia supply passage communicates with the reducing agent supply passage, and through which at least a part of the fuel ammonia is supplied to the catalyst reduction unit as a reducing agent for the nitrogen oxides in the combustion exhaust gas. a catalyst reduction unit which is configured to reduce nitrogen oxides in a combustion exhaust gas supplied from the combustor; an ammonia supply unit which is configured to supply the fuel ammonia to the combustor and is configured to supply reducing ammonia to the catalyst reduction unit; an ammonia supply passage through which the fuel ammonia is supplied to the combustor; and a reducing agent supply passage through which the reducing ammonia is supplied to the catalyst reduction unit, wherein a pressure of the reducing ammonia is controlled by the ammonia supply unit such that the pressure of the reducing ammonia is lower than a pressure of the fuel ammonia, characterized by further comprising: an ammonia flow branch passage which branches from the ammonia supply passage, via which the ammonia supply passage communicates with the reducing agent supply passage, and through which at least a part of the fuel ammonia is supplied to the catalyst reduction unit as a reducing agent for the nitrogen oxides in the combustion exhaust gas.
A treatment system (10; 310) configured to exert energy to at least two living tissues to treat the livingtissues, comprising: first and second holding members (62, 64; 342, 344) each including a holding face (72b, 82b; 384, 388; 434, 438), said holding faces being opposed to each other and configured to hold the living tissues, first and second cutter guide grooves (62a, 64a) formed in the first and second holding members (62, 64; 342, 344), respectively, and facing each other; a cutter configured to be guided forward and backward in the first and second cutter guide grooves (62a, 64a); a seal member (76, 86; 372, 422) disposed on the holding face (72b, 82b; 384, 388; 434, 438) of the first or second holding member (62, 64; 342, 344), surrounding the first and the second cutter guide grooves (62a, 64a), respectively, and configured to seal desirable regions of the living tissues when the energy is exerted to a tissue region; a maintaining member (78, 88; 374, 424) disposed on an outer side of the holding face (72b, 82b; 384, 388; 434, 438) of the first or second holding member (62, 64; 342, 344) with respect to the seal member (76, 86; 372, 422), and configured to discretely join the living tissues by the energy and maintain a joined state of the living tissues; wherein each of the seal member and the maintaining member includes at least one of a high-frequency electrode and a heater to, respectively, seal and discretely join the living tissues; said system further comprising a control section configured to offset energy output timings of the seal member (76, 86; 372, 422) and the maintaining member (78, 88; 374, 424). first and second holding members (62, 64; 342, 344) each including a holding face (72b, 82b; 384, 388; 434, 438), said holding faces being opposed to each other and configured to hold the living tissues, first and second cutter guide grooves (62a, 64a) formed in the first and second holding members (62, 64; 342, 344), respectively, and facing each other; a cutter configured to be guided forward and backward in the first and second cutter guide grooves (62a, 64a); a seal member (76, 86; 372, 422) disposed on the holding face (72b, 82b; 384, 388; 434, 438) of the first or second holding member (62, 64; 342, 344), surrounding the first and the second cutter guide grooves (62a, 64a), respectively, and configured to seal desirable regions of the living tissues when the energy is exerted to a tissue region; a maintaining member (78, 88; 374, 424) disposed on an outer side of the holding face (72b, 82b; 384, 388; 434, 438) of the first or second holding member (62, 64; 342, 344) with respect to the seal member (76, 86; 372, 422), and configured to discretely join the living tissues by the energy and maintain a joined state of the living tissues; wherein each of the seal member and the maintaining member includes at least one of a high-frequency electrode and a heater to, respectively, seal and discretely join the living tissues; said system further comprising a control section configured to offset energy output timings of the seal member (76, 86; 372, 422) and the maintaining member (78, 88; 374, 424).