mhurhangee/ep-ind-claims huggingface dataset:
A hydrogen system comprising: a hydrogen production apparatus configured to produce hydrogen; a hydrogen storage apparatus configured to store hydrogen produced by the hydrogen production apparatus; a first flow path configured to supply hydrogen discharged from the hydrogen production apparatus to the hydrogen storage apparatus by flowing therethrough; a second flow path configured to supply hydrogen discharged from the hydrogen storage apparatus to a hydrogen-using apparatus by flowing therethrough; a casing configured to house the hydrogen production apparatus, the hydrogen storage apparatus, the first flow path and at least part of the second flow path; a third flow path (6, 6A-6H, 6K, 6L), wherein hydrogen discharged from at least one of the hydrogen production apparatus, the hydrogen storage apparatus, the first flow path and the at least part of the second flow path is configured to flow outside the casing through the third flow path; a first valve that is provided in the third flow path; and a controller configured to open the first valve, wherein the third flow path (6, 6A-6H, 6K, 6L) branches from the first flow path. a hydrogen production apparatus configured to produce hydrogen; a hydrogen storage apparatus configured to store hydrogen produced by the hydrogen production apparatus; a first flow path configured to supply hydrogen discharged from the hydrogen production apparatus to the hydrogen storage apparatus by flowing therethrough; a second flow path configured to supply hydrogen discharged from the hydrogen storage apparatus to a hydrogen-using apparatus by flowing therethrough; a casing configured to house the hydrogen production apparatus, the hydrogen storage apparatus, the first flow path and at least part of the second flow path; a third flow path (6, 6A-6H, 6K, 6L), wherein hydrogen discharged from at least one of the hydrogen production apparatus, the hydrogen storage apparatus, the first flow path and the at least part of the second flow path is configured to flow outside the casing through the third flow path; a first valve that is provided in the third flow path; and a controller configured to open the first valve, wherein the third flow path (6, 6A-6H, 6K, 6L) branches from the first flow path.
A virtual reality welding system, comprising: a programmable processor-based subsystem; a spatial tracker operatively connected to the programmable processor-based subsystem; at least one mock welding tool configured to be spatially tracked by the spatial tracker; a user interface; and at least one display device operatively connected to the programmable processor-based subsystem, wherein the system is configured to simulate, in a virtual reality environment, a weld puddle that is responsive to manipulation of the at least one mock welding tool by a user and has real-time molten metal fluidity and heat dissipation characteristics, and display the simulated weld puddle on the at least one display device in real-time, characterized in that the virtual reality welding system is further configured to overlay and display an image of an ideal weld puddle onto the simulated weld puddle when at least one characteristic of the simulated weld puddle deviates more than a determined amount from an ideal amount of the at least one characteristic; and the virtual welding environment simulates one or more unsafe conditions within the virtual welding environment; and the virtual welding system is configured to allow the user to proceed with performing a virtual welding activity using the virtual reality welding system after the user has correctly identified the one or more unsafe conditions to the virtual reality welding system via the user interface. a programmable processor-based subsystem; a spatial tracker operatively connected to the programmable processor-based subsystem; at least one mock welding tool configured to be spatially tracked by the spatial tracker; a user interface; and at least one display device operatively connected to the programmable processor-based subsystem, wherein the system is configured to simulate, in a virtual reality environment, a weld puddle that is responsive to manipulation of the at least one mock welding tool by a user and has real-time molten metal fluidity and heat dissipation characteristics, and display the simulated weld puddle on the at least one display device in real-time, characterized in that the virtual reality welding system is further configured to overlay and display an image of an ideal weld puddle onto the simulated weld puddle when at least one characteristic of the simulated weld puddle deviates more than a determined amount from an ideal amount of the at least one characteristic; and the virtual welding environment simulates one or more unsafe conditions within the virtual welding environment; and the virtual welding system is configured to allow the user to proceed with performing a virtual welding activity using the virtual reality welding system after the user has correctly identified the one or more unsafe conditions to the virtual reality welding system via the user interface.
A rolling gate comprising a gate leaf that can be moved between an open position, in which it at least partially clears a wall opening and forms a multi-layered roll above the wall opening, and a closed position, in which it at least partially closes the wall opening, and articulated structures (20, 30) for guiding the movement of the gate leaf which are located in the region of the lateral edges of the gate leaf that run at least in sections in the direction of gravity in the closed position and fastened to the gate leaf, each of which articulated structures have a plurality of articulation members (26, 36) connected to one another flexibly in relation to articulation axes running perpendicular to the lateral edges and approximately parallel to the plane of the gate leaf, the gate leaf being formed at least in sections from a flexible material, such as for example a plastic film, that is stabilised by two, three or more stabilisation devices running perpendicular to the lateral edges and in the plane of the gate leaf, the gate leaf being connected to the articulated structures (20, 30) by the stabilisation devices, at least one stabilisation device extending approximately parallel to an axis of articulation and being connected along this axis of articulation to at least one, preferably to two articulated structures provided on opposing lateral gate leaf edges, characterised in that the axes of articulation of the articulated structures located between two stabilisation devices are not connected to the gate leaf.
A metal restraint strap adapted to be used in an assembly of a rectangular frame and a rectangular panel fitted in the rectangular frame, the frame being built by combining a pair of parallel disposed first structural bodies and a pair of second structural bodies disposed between the pair of first structural bodies so as to be perpendicular to the pair of first structural bodies, and suppress a displacement between the pair of first structural bodies away from each other, the metal restraint strap comprising: an elongated base member; metal bolt members extending outward in a longitudinal direction of the base member from opposite longitudinal ends of the base member, and each having an external thread at least on an outer periphery of a distal end portion of the bolt member, the metal bolt members being adapted to be inserted through through holes formed in the pair of first structural bodies; and fasteners adapted to be screwed onto the external threads of the bolt members that project from the pair of first structural bodies; characterized in that said base member is made of a flat metal plate having a long rectangular shape that is adapted to be fitted into a slit formed in the panel or each of the second structural bodies at a location where the second structural body faces the panel. an elongated base member; metal bolt members extending outward in a longitudinal direction of the base member from opposite longitudinal ends of the base member, and each having an external thread at least on an outer periphery of a distal end portion of the bolt member, the metal bolt members being adapted to be inserted through through holes formed in the pair of first structural bodies; and fasteners adapted to be screwed onto the external threads of the bolt members that project from the pair of first structural bodies; characterized in that said base member is made of a flat metal plate having a long rectangular shape that is adapted to be fitted into a slit formed in the panel or each of the second structural bodies at a location where the second structural body faces the panel.
A method for calculating a power headroom, the method comprising: determining, from a plurality of aggregated carriers, a carrier that does not have a physical uplink shared channel, PUSCH, transmission for a subframe; determining a maximum power for the carrier; and calculating the power headroom for the carrier using the maximum power for the carrier and a reference transmit power that is calculated based on a reference grant allocation. determining, from a plurality of aggregated carriers, a carrier that does not have a physical uplink shared channel, PUSCH, transmission for a subframe; determining a maximum power for the carrier; and calculating the power headroom for the carrier using the maximum power for the carrier and a reference transmit power that is calculated based on a reference grant allocation.
Composite component (10; 10a; 10b) comprising a first component (1; 1a), which has at least in certain regions on a first contact area a surface structure (20;. 20a) produced by an electromagnetic radiation, in particular a laser beam, a second component (2; 2a) with a second contact area interacting with the first contact area, the second component (2; 2a) consisting of plastic and being formed by being moulded onto the first component (1; 1a), and comprising an interlocking connection formed between the two components (1; 1a, 2; 2a), the interlocking connection having a contour between the two components (1; 1a, 2; 2a), which as a result of different coefficients of thermal expansion of the materials of the two components (1; 1a, 2; 2a) leads to an increased surface pressure between the two components (1; 1a, 2; 2a) when there is an increase in temperature or a decrease in temperature, the surface structure (20; 20a) having at least one microstructure with surface elements of the size between 1 μm and 999 μm, the surface structure (20; 20a) additionally having a nanostructure with surface elements of the size between 1 nm and 999 nm, characterized in that the contour is formed as a recess (13; 13a; 13b; 15), in that the component (2; 2a) having the greater coefficient of thermal expansion fills the recess (13; 13a; 13b; 15), at least in certain regions, and in that the component (2; 2a) having the greater coefficient of thermal expansion lies against opposing wall portions (25; 26a) of the recess (13; 13a; 13b; 15), and in that the surface structure (20; 20a) is formed in a region of the first component (1; 1a) that is separate from the region of the interlocking connection.
Adhesive tape for application to a component (2, 3) of a motor vehicle, consisting of - a primer layer having a self-adhesive lower side and a self-adhesive upper side, - where the primer layer is embodied such that it is activatable for chemical reaction with an adhesive. - a primer layer having a self-adhesive lower side and a self-adhesive upper side, - where the primer layer is embodied such that it is activatable for chemical reaction with an adhesive.
A method of reducing surface tackiness of a silicone rubber cured product, comprising the steps of - coating a surface of a cured product of a curable silicone rubber composition, which has a molar ratio within said composition of hydrogen atoms bonded to silicon atoms relative to alkenyl groups bonded to silicon atoms of 1.0 or greater, and which, following curing, exhibits a type A hardness prescribed in JIS K6253 of 5 to 20, with a curable silicone resin layer which, following curing, exhibits a type D hardness prescribed in JIS K6253 of 30 or greater; and - subsequently curing said silicone resin to form a cured silicone resin layer with a thickness of no more than 0.5 mm; wherein said curable silicone rubber composition comprises an organopolysiloxane containing two alkenyl groups bonded to silicon atoms within each molecule, an organopolysiloxane containing three or more alkenyl groups bonded to silicon atoms within each molecule, an organohydrogenpolysiloxane containing two hydrogen atoms bonded to silicon atoms within each molecule, and a platinum group metal-based catalyst. - coating a surface of a cured product of a curable silicone rubber composition, which has a molar ratio within said composition of hydrogen atoms bonded to silicon atoms relative to alkenyl groups bonded to silicon atoms of 1.0 or greater, and which, following curing, exhibits a type A hardness prescribed in JIS K6253 of 5 to 20, with a curable silicone resin layer which, following curing, exhibits a type D hardness prescribed in JIS K6253 of 30 or greater; and - subsequently curing said silicone resin to form a cured silicone resin layer with a thickness of no more than 0.5 mm; an organopolysiloxane containing two alkenyl groups bonded to silicon atoms within each molecule, an organopolysiloxane containing three or more alkenyl groups bonded to silicon atoms within each molecule, an organohydrogenpolysiloxane containing two hydrogen atoms bonded to silicon atoms within each molecule, and a platinum group metal-based catalyst.
A method for manufacturing a solar module equipped with solar cells connected electrically by a wiring member, the method comprising: an electrical connecting step in which the solar cells are connected electrically by the wiring member, the electrical connecting step comprising a heat and pressure applying step for applying heat and pressure to the opposing solar cell and wiring member with a resin adhesive interposed therebetween; and a sealing step in which the solar cells connected electrically by the wiring member are arranged between a first protecting member and a second protecting member, wherein the solar cells, the first protective member and the second protective member are thermally bonded and laminated under heat and pressure in a reduced-pressure environment; characterized in that the electrical connecting step further comprises a cooling step for cooling the solar cell and wiring member under pressure until the temperature of the resin adhesive is 60°C or less after the heat and pressure applying step has been performed. an electrical connecting step in which the solar cells are connected electrically by the wiring member, the electrical connecting step comprising a heat and pressure applying step for applying heat and pressure to the opposing solar cell and wiring member with a resin adhesive interposed therebetween; and a sealing step in which the solar cells connected electrically by the wiring member are arranged between a first protecting member and a second protecting member, wherein the solar cells, the first protective member and the second protective member are thermally bonded and laminated under heat and pressure in a reduced-pressure environment; characterized in that the electrical connecting step further comprises a cooling step for cooling the solar cell and wiring member under pressure until the temperature of the resin adhesive is 60°C or less after the heat and pressure applying step has been performed.
Method for checking a function of a vehicle, the vehicle comprising a monitoring apparatus for detecting a possible collision of the vehicle with at least one object in the vicinity of the vehicle, the function of the vehicle involving triggering a change in state of at least one component of the vehicle following detection by the monitoring apparatus of a possible collision, and, in the method, the vehicle being brought into a test field and, outside the vehicle, at least one object (7, 13, 22) being moved on the test field so that the at least one object (7, 13, 22) enters the vicinity of the vehicle monitored by the monitoring apparatus, the at least one object (7, 13, 22) being accelerated using an acceleration apparatus (4, 12) at a distance from the vehicle and then being released, so that the at least one object autonomously enters the monitored area by inertia, characterised in that the at least one object and/or type of collision is classifiable by the monitoring apparatus and the change in state can additionally be triggered on the basis of the result of the classification, and in that, in the method: a) if the at least one object can be classified by the monitoring apparatus, at least one object is accelerated, for which object triggering of the change in state is not provided by the monitoring apparatus, and/or b) if a collision type can be classified by the monitoring apparatus, the at least one object is accelerated so as to produce a collision type for which triggering of the change in state is not provided by the monitoring apparatus. a) if the at least one object can be classified by the monitoring apparatus, at least one object is accelerated, for which object triggering of the change in state is not provided by the monitoring apparatus, and/or b) if a collision type can be classified by the monitoring apparatus, the at least one object is accelerated so as to produce a collision type for which triggering of the change in state is not provided by the monitoring apparatus.
Method for operating a redundantly designed automation system which has a first subsystem and a second subsystem, wherein one of these subsystems (2, 3) operates as the master and the other subsystem (2, 3) operates as the slave and wherein in the event that the master fails the slave takes over the function of the master, wherein the first subsystem receives a data packet generated by an external data source and forwards the data packet at a level of the physical layer and the data link layer to the second subsystem before a processing of the data packet takes place in the first subsystem at a higher layer than the level of the physical layer and the data link layer, wherein the first subsystem stores the data packet after the processing at a level of the network layer and at a level of the transport layer in a FIFO memory of the first subsystem which is designed to save the data packet in a particular sequence and to output the data packet again in the particular sequence, characterised in that once the data packet has been stored in the FIFO memory of the first subsystem, a synchronisation message is transmitted from the second subsystem to the first subsystem in order to synchronise a processing of the data packet on the second subsystem with a processing of the data packet on the first subsystem, wherein the synchronisation message includes information as to which quantity of data from the data packet stored in the memory of the first subsystem the first subsystem should remove from the memory. once the data packet has been stored in the FIFO memory of the first subsystem, a synchronisation message is transmitted from the second subsystem to the first subsystem in order to synchronise a processing of the data packet on the second subsystem with a processing of the data packet on the first subsystem, wherein the synchronisation message includes information as to which quantity of data from the data packet stored in the memory of the first subsystem the first subsystem should remove from the memory.
A battery pack comprising: a battery cell; a case comprising a first case portion and a second case portion releasably coupled to each other, the case accommodating the battery cell therein; a holder around the case; a first engagement portion at an outer surface of at least one of the first case portion and the second case portion; and a second engagement portion at an inner surface of the holder for releasably coupling with the first engagement portion. a battery cell; a case comprising a first case portion and a second case portion releasably coupled to each other, the case accommodating the battery cell therein; a holder around the case; a first engagement portion at an outer surface of at least one of the first case portion and the second case portion; and a second engagement portion at an inner surface of the holder for releasably coupling with the first engagement portion.
A hermetic refrigeration compressor having a suction arrangement which comprises: - a hermetic shell; - a cylinder block defining, in a single piece, a shell portion (la) and a compression cylinder having an end which is opened to the exterior of the hermetic shell; - a valve plate closing said end of the compression cylinder; - a head affixed to the cylinder block onto the valve plate so as to define, with the latter, at least one suction chamber receiving refrigerant gas from a gas inlet pipe external to the hermetic shell, comprising a gas inlet duct defined through the shell portion (la) and through the valve plate and having an inner end opened to the suction chamber, characterized in that the gas inlet duct further comprises: an outer end hermetically coupled to the gas inlet pipe, at least one inner passage provided through the shell portion (la) and opened to the exterior thereof through the outer end; and a through hole provided in the valve plate and opened to the interior of the suction chamber through the inner end of the gas inlet duct, wherein the head portion which defines the suction chamber is internally lined with a thermal insulating means. - a hermetic shell; - a cylinder block defining, in a single piece, a shell portion (la) and a compression cylinder having an end which is opened to the exterior of the hermetic shell; - a valve plate closing said end of the compression cylinder; - a head affixed to the cylinder block onto the valve plate so as to define, with the latter, at least one suction chamber receiving refrigerant gas from a gas inlet pipe external to the hermetic shell, comprising a gas inlet duct defined through the shell portion (la) and through the valve plate and having an inner end opened to the suction chamber, characterized in that the gas inlet duct further comprises: an outer end hermetically coupled to the gas inlet pipe, at least one inner passage provided through the shell portion (la) and opened to the exterior thereof through the outer end; and a through hole provided in the valve plate and opened to the interior of the suction chamber through the inner end of the gas inlet duct, wherein the head portion which defines the suction chamber is internally lined with a thermal insulating means.