mhurhangee/ep-ind-claims huggingface dataset:
A display system to be provided in a production facility that produces products and includes, as components, at least one driving means for driving the production facility and at least one monitoring means for monitoring the production, the display system comprising: a control unit; a display unit; and a storage unit, wherein the storage unit is configured to store a relationship between two or more components of the plurality of components as a causal relationship model regarding an abnormality that may occur in the production facility, the display system being characterised in that the control unit is configured to: display, on the display unit, a model diagram that has nodes corresponding to the components and one or more edges connecting the nodes to each other, based on the causal relationship model; and in response to a request from a user, display the model diagram in either a first mode in which all the nodes are displayed, or a second mode in which the nodes are divided into a predetermined number of groups based on a predetermined criterion and the groups are displayed as nodes. a control unit; a display unit; and a storage unit, wherein the storage unit is configured to store a relationship between two or more components of the plurality of components as a causal relationship model regarding an abnormality that may occur in the production facility, the display system being characterised in that the control unit is configured to: display, on the display unit, a model diagram that has nodes corresponding to the components and one or more edges connecting the nodes to each other, based on the causal relationship model; and in response to a request from a user, display the model diagram in either a first mode in which all the nodes are displayed, or a second mode in which the nodes are divided into a predetermined number of groups based on a predetermined criterion and the groups are displayed as nodes. display, on the display unit, a model diagram that has nodes corresponding to the components and one or more edges connecting the nodes to each other, based on the causal relationship model; and in response to a request from a user, display the model diagram in either a first mode in which all the nodes are displayed, or a second mode in which the nodes are divided into a predetermined number of groups based on a predetermined criterion and the groups are displayed as nodes.
Method for producing an aluminium strip or sheet from an aluminium alloy having the following alloying constituents in wt%: 3.6 % ≤ Mg ≤ 6 %, Si ≤ 0.4 %, Fe ≤ 0.5 %, Cu ≤ 0.15 %, 0.1 % ≤ Mn ≤ 0.4 %, Cr < 0.05 %, Zn ≤ 0.20 %, Ti ≤ 0.20 %, with the remainder Al and unavoidable impurities, individually at most 0.05 wt%, in total at most 0.15 wt%, wherein the method comprises the following steps: - casting a rolling ingot consisting of the specified aluminium alloy, - homogenising the rolling ingot at 480 °C to 550 °C for at least 0.5 h, - hot rolling the rolling ingot at a temperature of 280 °C to 500 °C into a hot strip, - cold rolling the aluminium alloy strip after hot rolling with a degree of rolling of 10 % to 45 % before a last intermediate annealing, - carrying out at least a last intermediate annealing on the cold-rolled aluminium alloy strip at 300 °C to 500 °C in such a way that the cold-rolled aluminium alloy strip has a recrystallised microstructure after the intermediate annealing, - cold rolling the intermediate-annealed aluminium alloy strip with a degree of rolling of 30 % to 60 % to a final thickness and - reverse annealing the aluminium alloy strip in the coil to a final thickness, wherein the metal temperature is 190 - 250 °C for at least 0.5 h. - casting a rolling ingot consisting of the specified aluminium alloy, - homogenising the rolling ingot at 480 °C to 550 °C for at least 0.5 h, - hot rolling the rolling ingot at a temperature of 280 °C to 500 °C into a hot strip, - cold rolling the aluminium alloy strip after hot rolling with a degree of rolling of 10 % to 45 % before a last intermediate annealing, - carrying out at least a last intermediate annealing on the cold-rolled aluminium alloy strip at 300 °C to 500 °C in such a way that the cold-rolled aluminium alloy strip has a recrystallised microstructure after the intermediate annealing, - cold rolling the intermediate-annealed aluminium alloy strip with a degree of rolling of 30 % to 60 % to a final thickness and - reverse annealing the aluminium alloy strip in the coil to a final thickness, wherein the metal temperature is 190 - 250 °C for at least 0.5 h.
A battery test system, comprising: an extrusion apparatus, configured to be disposed on a first surface of a battery; and a pressure apparatus disposed above the extrusion apparatus, wherein the pressure apparatus is configured to apply a predetermined force to the battery in predetermined duration through the extrusion apparatus, characterized in that, a first surface of the extrusion apparatus configured to contact with the first surface of the battery is a substantially flat surface, and a side edge of the first surface of the extrusion apparatus has a chamfer. an extrusion apparatus, configured to be disposed on a first surface of a battery; and a pressure apparatus disposed above the extrusion apparatus, wherein the pressure apparatus is configured to apply a predetermined force to the battery in predetermined duration through the extrusion apparatus, characterized in that, a first surface of the extrusion apparatus configured to contact with the first surface of the battery is a substantially flat surface, and a side edge of the first surface of the extrusion apparatus has a chamfer.
A method of importing a first content file comprising a plurality of content parts as a second content file for a recipient DRM system, the method comprising: encrypting the content parts of the first content file by using different content keys according to corresponding usage constraint information of the content parts included in the first content file; creating licenses for each of the content parts according to the usage constraint information, each license including: - a content ID to be used as mapping information for matching the license with the corresponding content part; - a content key which has been used for encrypting a corresponding content part; - usage rule defined based on usage constraints information included in the first content file; creating a header including the created licenses; inserting protection information into each of the encrypted content parts, the protection information including a content ID identifying the content part; and creating the second content file containing the encrypted content parts and the created licenses. encrypting the content parts of the first content file by using different content keys according to corresponding usage constraint information of the content parts included in the first content file; creating licenses for each of the content parts according to the usage constraint information, each license including: - a content ID to be used as mapping information for matching the license with the corresponding content part; - a content key which has been used for encrypting a corresponding content part; - usage rule defined based on usage constraints information included in the first content file; - a content ID to be used as mapping information for matching the license with the corresponding content part; - a content key which has been used for encrypting a corresponding content part; - usage rule defined based on usage constraints information included in the first content file; creating a header including the created licenses; inserting protection information into each of the encrypted content parts, the protection information including a content ID identifying the content part; and creating the second content file containing the encrypted content parts and the created licenses.
A composition for growing viral cultures comprising: one or more ethylene oxide propylene oxide (EO-PO) block copolymers, wherein the EO-PO block copolymers comprise poloxamer 407 (Pluronic F127), poloxamer 403 (Pluronic P123) or a combination thereof, wherein the concentration of EO-PO block copolymer is about 0.001 % to about 3.0 % (w/v); a viral culture; a host cell; and a medium for growing the viral culture, wherein the EO-PO block copolymer accelerates growth of viral cultures. one or more ethylene oxide propylene oxide (EO-PO) block copolymers, wherein the EO-PO block copolymers comprise poloxamer 407 (Pluronic F127), poloxamer 403 (Pluronic P123) or a combination thereof, wherein the concentration of EO-PO block copolymer is about 0.001 % to about 3.0 % (w/v); a viral culture; a host cell; and a medium for growing the viral culture,
A printing apparatus comprising: a transport portion for transporting a recording medium having a belt shape; a printing portion that is disposed so as to face, across a space, the recording medium being in a state of being transported by the transport portion and that includes a plurality of nozzles through which inks can be ejected for performing printing onto the recording medium; a detection portion that is disposed at a more upstream position than the plurality of nozzles in a transport direction (y) in which the recording medium is transported, and that is arranged to detect an upper face position of the recording medium; and a determination portion for determining whether or not the transport of the recording medium is to be allowed, on the basis of the upper face position of the recording medium and a distance of the space, wherein the recording medium is arranged to be transported in a direction along a long side of the recording medium, wherein the detection portion is constituted by a first sensor that is arranged to detect a received light amount of light entering in a direction along a width of the recording medium, and characterized by a second sensor that is arranged to detect a received light amount of reflection light having been reflected at the recording medium, wherein the determination portion is arranged to correct the detected value of the upper face position of the recording medium obtained by the detection portion on the basis of a material of the recording medium. a transport portion for transporting a recording medium having a belt shape; a printing portion that is disposed so as to face, across a space, the recording medium being in a state of being transported by the transport portion and that includes a plurality of nozzles through which inks can be ejected for performing printing onto the recording medium; a detection portion that is disposed at a more upstream position than the plurality of nozzles in a transport direction (y) in which the recording medium is transported, and that is arranged to detect an upper face position of the recording medium; and a determination portion for determining whether or not the transport of the recording medium is to be allowed, on the basis of the upper face position of the recording medium and a distance of the space, wherein the recording medium is arranged to be transported in a direction along a long side of the recording medium, wherein the detection portion is constituted by a first sensor that is arranged to detect a received light amount of light entering in a direction along a width of the recording medium, and characterized by a second sensor that is arranged to detect a received light amount of reflection light having been reflected at the recording medium, wherein the determination portion is arranged to correct the detected value of the upper face position of the recording medium obtained by the detection portion on the basis of a material of the recording medium.
Protective cover for a protective element against hollow charge projectiles, which is designed to allow hollow charge projectiles to pass through, characterized in that the protective cover comprises at least two layers, in that an outer layer, which faces the hollow charge projectile, is harder than an adjoining layer, and in that the layers (16, 17) are connected, in particular adhesively bonded, to one another.
A gas turbomachine comprising: a casing assembly surrounding a portion of the gas turbomachine, wherein the casing assembly includes an outer casing portion and an inner casing portion and wherein the inner casing portion includes a plurality of shroud support elements located at distinct axial positions; and a counter-flow cooling system arranged within the casing assembly, the counter-flow cooling system being configured and disposed to guide cooling fluid through the casing assembly in a first axial direction and return cooling fluid through the casing assembly in a second axial direction that is opposite the first axial direction, wherein the counter-flow cooling system includes a first duct member extending axially through the casing assembly, a second duct member spaced from and extending substantially parallel to the first duct member, and at least one cross-flow duct linking the first and second duct members (108,109). characterized in that the counter-flow cooling system is arranged within the inner casing portion and extends through at least two of the plurality of shroud support elements, and wherein the counter-flow cooling system has an outlet portion which leads through the inner casing portion and fluidly connects to one or more vanes (33, 37, 41, 45) of the gas turbomachine. a casing assembly surrounding a portion of the gas turbomachine, wherein the casing assembly includes an outer casing portion and an inner casing portion and wherein the inner casing portion includes a plurality of shroud support elements located at distinct axial positions; and a counter-flow cooling system arranged within the casing assembly, the counter-flow cooling system being configured and disposed to guide cooling fluid through the casing assembly in a first axial direction and return cooling fluid through the casing assembly in a second axial direction that is opposite the first axial direction, wherein the counter-flow cooling system includes a first duct member extending axially through the casing assembly, a second duct member spaced from and extending substantially parallel to the first duct member, and at least one cross-flow duct linking the first and second duct members (108,109). characterized in that the counter-flow cooling system is arranged within the inner casing portion and extends through at least two of the plurality of shroud support elements, and wherein the counter-flow cooling system has an outlet portion which leads through the inner casing portion and fluidly connects to one or more vanes (33, 37, 41, 45) of the gas turbomachine.
A method for manufacturing an array substrate, comprising the following steps of: forming an active layer and a gate insulating layer successively on a base substrate of the array substrate; forming a first transparent conductive layer, TCO, and a metallic layer successively on the base substrate of the array substrate; forming a gate electrode, a source electrode, a drain electrode and a first transparent electrode by a plurality of patterning processes; forming a protective layer, wherein the active layer comprises a doped region; forming via-holes (281, 282, 2811, 2812, 2821, 2822) in the protective layer respectively at locations corresponding to the doped region of the active layer, the source electrode and the drain electrode, wherein the doped region of the active layer, the source electrode and the drain electrode are exposed through the via-holes (281, 282, 2811, 2812, 2821, 2822); and forming a second TCO, forming a second transparent electrode, a first connection electrode for connecting the source electrode to the doped region of the active layer, and a second connection electrode for connecting the drain electrode to the doped region of the active layer through patterning; wherein the first connection electrode and the second connection electrode are located in the via-holes (281, 282, 2811, 2812, 2821, 2822). forming an active layer and a gate insulating layer successively on a base substrate of the array substrate; forming a first transparent conductive layer, TCO, and a metallic layer successively on the base substrate of the array substrate; forming a gate electrode, a source electrode, a drain electrode and a first transparent electrode by a plurality of patterning processes; forming a protective layer, wherein the active layer comprises a doped region; forming via-holes (281, 282, 2811, 2812, 2821, 2822) in the protective layer respectively at locations corresponding to the doped region of the active layer, the source electrode and the drain electrode, wherein the doped region of the active layer, the source electrode and the drain electrode are exposed through the via-holes (281, 282, 2811, 2812, 2821, 2822); and forming a second TCO, forming a second transparent electrode, a first connection electrode for connecting the source electrode to the doped region of the active layer, and a second connection electrode for connecting the drain electrode to the doped region of the active layer through patterning; wherein the first connection electrode and the second connection electrode are located in the via-holes (281, 282, 2811, 2812, 2821, 2822).
A method for manufacturing a reconstituted tobacco binder sheet, comprising a raw tobacco material and a binding agent, wherein the raw tobacco material is positioned on a conveyer belt, which moves in a forward direction, and the raw tobacco material is formed by at least one forming head to a raw tobacco material layer, wherein the binding agent is subsequently applied on the raw tobacco material layer and then dried in a drying process, thereby creating the RTB sheet, characterized in that a tobacco product comprising tobacco particles and a liquid medium is applied on the raw tobacco material layer and/or the RTB sheet during the manufacturing, wherein the tobacco particles are having an average particle size of 30 μm or less.
Pumping station for a pipeline, in particular an oil or gas pipeline, 1.1 with at least one delivery pump (2, 3) for delivering a fluid through the pipeline; 1.2 with at least one combustion engine (1, 1', 1"), which is in driving connection with the at least one delivery pump (2, 3) or can be switched into such a connection in order to drive the at least one delivery pump (2, 3); 1.3 with a hydrostatic system, which has at least one first hydraulic motor (10, 10', 10"), which is in driving connection with at least one combustion engine (1, 1', 1") or can be switched into such a connection in order to accelerate the at least one combustion engine (1, 1', 1") to start it by means of drive power; wherein 1.4 a hydraulic pressure accumulator, which has a limited volume and can be filled with a pressurized hydraulic medium that can be admitted to the first hydraulic motor (10, 10', 10") in order to drive it, is provided in the hydraulic system; characterized in that 1.5 the pressure differential present across the at least one first hydraulic motor (10, 10', 10") can be variably adjusted in the hydrostatic system in order to accelerate the combustion engine (1, 1', 1") to a pre-defined firing speed and an additional hydraulic motor is provided in the hydrostatic system and also provided is a hydraulic pump, which is driven by the additional hydraulic motor and feeds the hydraulic medium into the first hydraulic motor (10, 10', 10"). 1.1 with at least one delivery pump (2, 3) for delivering a fluid through the pipeline; 1.2 with at least one combustion engine (1, 1', 1"), which is in driving connection with the at least one delivery pump (2, 3) or can be switched into such a connection in order to drive the at least one delivery pump (2, 3); 1.3 with a hydrostatic system, which has at least one first hydraulic motor (10, 10', 10"), which is in driving connection with at least one combustion engine (1, 1', 1") or can be switched into such a connection in order to accelerate the at least one combustion engine (1, 1', 1") to start it by means of drive power; wherein 1.4 a hydraulic pressure accumulator, which has a limited volume and can be filled with a pressurized hydraulic medium that can be admitted to the first hydraulic motor (10, 10', 10") in order to drive it, is provided in the hydraulic system; characterized in that 1.5 the pressure differential present across the at least one first hydraulic motor (10, 10', 10") can be variably adjusted in the hydrostatic system in order to accelerate the combustion engine (1, 1', 1") to a pre-defined firing speed and an additional hydraulic motor is provided in the hydrostatic system and also provided is a hydraulic pump, which is driven by the additional hydraulic motor and feeds the hydraulic medium into the first hydraulic motor (10, 10', 10").
A method of operation of an electronic device, having a first oscillator and a second oscillator, wherein the electronic device is powered by a first power source, the method comprising: in a normal mode of operation, counting time based on an output from the first oscillator; and in a low power mode of operation, counting time based on an output from the second oscillator; the method being characterised in that it further comprises, in the low power mode of operation, repeatedly: calibrating the second oscillator against the first oscillator during a first calibration time period to obtain a first calibration result, recalibrating the second oscillator against the first oscillator during a second calibration time period to obtain a second calibration result, determining a correction factor from the first and second calibration results, and subsequently applying the correction factor when counting time based on the output from the second oscillator; further comprising: detecting whether the first power source has been removed from the device; and if so, ceasing calibration of the second oscillator against the first oscillator until the first power source or a different power source has been inserted in place of the removed first power source. in a normal mode of operation, counting time based on an output from the first oscillator; and in a low power mode of operation, counting time based on an output from the second oscillator; the method being characterised in that it further comprises, in the low power mode of operation, repeatedly: calibrating the second oscillator against the first oscillator during a first calibration time period to obtain a first calibration result, recalibrating the second oscillator against the first oscillator during a second calibration time period to obtain a second calibration result, determining a correction factor from the first and second calibration results, and subsequently applying the correction factor when counting time based on the output from the second oscillator; calibrating the second oscillator against the first oscillator during a first calibration time period to obtain a first calibration result, recalibrating the second oscillator against the first oscillator during a second calibration time period to obtain a second calibration result, determining a correction factor from the first and second calibration results, and subsequently applying the correction factor when counting time based on the output from the second oscillator; further comprising: detecting whether the first power source has been removed from the device; and if so, ceasing calibration of the second oscillator against the first oscillator until the first power source or a different power source has been inserted in place of the removed first power source. detecting whether the first power source has been removed from the device; and if so, ceasing calibration of the second oscillator against the first oscillator until the first power source or a different power source has been inserted in place of the removed first power source.