mhurhangee/ep-ind-claims huggingface dataset:
A packaging unit (1, 301) for hygiene articles, the unit being formed from a sheet of material having a longitudinal direction and a transverse direction, said sheet having an inner surface (2, 302) and an outer surface (3, 303), said inner surface (2, 302) comprising an edge zone that comprises an edge portion (4', 6, 8; 304, 306, 305', 307) being provided with a resealable adhesive, such as a pressure-sensitive hotmelt adhesive, for closure of the packaging unit, said sheet having a longitudinal center line and at least one transversely extending folding axis (9; 309, 309'), said folding axis (9;309) dividing said sheet into a first region (10; 310) and a second region (11; 311), wherein said sheet is folded along said at least one folding axis (9; 309,309'), with said first and second regions (10, 11; 310; 311) in an overlapping configuration, thereby providing a packaging unit (1, 301) of overlapping sheet layers, which can be completely unfolded when a new hygienic article is about to be taken out characterized in that a sheet-formed tab (13; 313) is arranged at an edge portion (4'; 304) of the first region (10, 310) and at least partially along the center line, the tab (13; 313) having two major surfaces (16, 17; 316, 317) being free of any adhesive for closure of the packaging unit, wherein the sheet-formed tab (13; 313) extends in a longitudinal direction from said edge portion (4'; 304) so that an extension of the tab (13; 313) along or parallel to the center line from a tab base to an outer edge (18; 318) of the tab (13; 313) is 0.5 cm or more, said tab base being a transversal line that longitudinally divides the tab (13; 313) with adhesive-free surfaces from a portion of the first region (10, 310) containing said resealable adhesive for closure of the packaging unit, to which resealable adhesive the tab base has a point of contact, wherein the first region (10, 310) forms an outer layer of the folded packaging unit (1, 301) and wherein the sheet-formed tab (13; 313) comprises a tab portion that protrudes outwardly from an edge defined by the overlapping sheet layers of the folded packaging unit.
A fiber optic cable installation robot system for installation of a multiplicity of fiber optic cables between first and second spaced - apart equipment racks within a facility and directed by a controller on which a cable deployment algorithm resides, said system comprising: a cable tray network positioned above and substantially in alignment with rows of equipment racks, the cable tray network having a bottom cable receiving section with periodically spaced cable outlet ports, an upper track system integral with a tray cover, and a plurality of track switch sections at locations wherein tracks of said upper track system cross; and one or more cable dispensing robots, each said cable dispensing robot for individually dispensing a pre-spooled fiber optical cable along a path determined by said cable deployment algorithm in the bottom section, each said cable dispensing robots including a motorized upper track engagement element for engaging said upper track system, a drive element to move the robot along the upper track system, a reciprocating cable feed element (25, 27) for laying the pre-spooled fiber optic cable along said path, a wireless communication element for communication between the robot and the controller, and a power element to power the drive element, the cable feed element (25, 27), and the wireless communication element. a cable tray network positioned above and substantially in alignment with rows of equipment racks, the cable tray network having a bottom cable receiving section with periodically spaced cable outlet ports, an upper track system integral with a tray cover, and a plurality of track switch sections at locations wherein tracks of said upper track system cross; and one or more cable dispensing robots, each said cable dispensing robot for individually dispensing a pre-spooled fiber optical cable along a path determined by said cable deployment algorithm in the bottom section, each said cable dispensing robots including a motorized upper track engagement element for engaging said upper track system, a drive element to move the robot along the upper track system, a reciprocating cable feed element (25, 27) for laying the pre-spooled fiber optic cable along said path, a wireless communication element for communication between the robot and the controller, and a power element to power the drive element, the cable feed element (25, 27), and the wireless communication element.
A pressure regulator (10, 92 114) comprising: a housing (12, 14, 100) including an inlet flow passage and an outlet flow passage; a plunger reciprocally mounted in the housing and including a plunger flow passage; an inlet to the plunger flow passage,; and a valve seat (60, 102) fixed to the housing and positioned between the inlet flow passage and the inlet to the plunger flow passage of the plunger, wherein the valve seat is configured to abut the inlet to the plunger flow passage while the plunger is advanced upstream in the housing, characterised in that: the inlet to the plunger flow passage is aligned with a plane oblique to an axis (56, 98, 118) of the plunger flow passage. a housing (12, 14, 100) including an inlet flow passage and an outlet flow passage; a plunger reciprocally mounted in the housing and including a plunger flow passage; an inlet to the plunger flow passage,; and a valve seat (60, 102) fixed to the housing and positioned between the inlet flow passage and the inlet to the plunger flow passage of the plunger, wherein the valve seat is configured to abut the inlet to the plunger flow passage while the plunger is advanced upstream in the housing, characterised in that: the inlet to the plunger flow passage is aligned with a plane oblique to an axis (56, 98, 118) of the plunger flow passage.
A method, comprising: creating a Display HTML action, wherein the Display HTML action has a first parameter and a second parameter, the first parameter to indicate content that a first device is viewing and the second parameter to indicate content that a second device, connected to the first device, is to make available to a user for display; and making the action available to the second device, wherein the second device is to use the Display HTML action to make the content to be displayed available to a user. creating a Display HTML action, wherein the Display HTML action has a first parameter and a second parameter, the first parameter to indicate content that a first device is viewing and the second parameter to indicate content that a second device, connected to the first device, is to make available to a user for display; and making the action available to the second device, wherein the second device is to use the Display HTML action to make the content to be displayed available to a user. making the action available to the second device, wherein the second device is to use the Display HTML action to make the content to be displayed available to a user.
Pharmaceutically active composition in a pharmaceutical peroral dosage form, which contains at least one of the active substances indometacin or acemetacin and optionally further additives, characterized in that: (i) this composition contains the active substance, or a mixture of these active substances, in micronized form, this micronized form being obtained through micronization by mechanical means; (ii) at least 90 vol.% of the micronized active substance has an average particle size distribution of less than 25 μm (microns) and the lower limit of the particle size distribution is 0.1 μm (microns); (iii) this micronized active substance is in the form of microcrystals; and (iv) this composition contains the active substance or the active substances in a mixture with at least one flavonoid derivative selected from the group including chalcone glycosides and dihydrochalcone glycosides. (i) this composition contains the active substance, or a mixture of these active substances, in micronized form, this micronized form being obtained through micronization by mechanical means; (ii) at least 90 vol.% of the micronized active substance has an average particle size distribution of less than 25 μm (microns) and the lower limit of the particle size distribution is 0.1 μm (microns); (iii) this micronized active substance is in the form of microcrystals; and (iv) this composition contains the active substance or the active substances in a mixture with at least one flavonoid derivative selected from the group including chalcone glycosides and dihydrochalcone glycosides.
A method of mounting one or more columns/piles in an upstanding position on a supporting surface formed by a lake, sea or river bed comprising the steps of using a submersible drilling machine for mounting the one or more columns/piles to be inserted in the supporting surface, lowering the column/pile to be installed from a support vessel into contact with the supporting surface, remotely operating, from the support vessel one or more drilling mechanisms mounted on the drilling machine by way of one or more flexible umbilicals (15,16) leaving the column/pile in situ in the thus formed bore after the completion of a drilling operation, and following a required drilling operation, recovering of the drilling machine by the support vessel characterised in that using the lower/toe end of the column/pile as a non-retrievable drill such that, upon rotation of the column/pile, a bore is formed in the supporting surface into which a lower region of the column/pile is to be located. using a submersible drilling machine for mounting the one or more columns/piles to be inserted in the supporting surface, lowering the column/pile to be installed from a support vessel into contact with the supporting surface, remotely operating, from the support vessel one or more drilling mechanisms mounted on the drilling machine by way of one or more flexible umbilicals (15,16) leaving the column/pile in situ in the thus formed bore after the completion of a drilling operation, and following a required drilling operation, recovering of the drilling machine by the support vessel characterised in that using the lower/toe end of the column/pile as a non-retrievable drill such that, upon rotation of the column/pile, a bore is formed in the supporting surface into which a lower region of the column/pile is to be located.
A metal composite carbon material having metal fine particles supported in a continuous porous structure in which a carbon skeleton and voids form respective continuous structures, the continuous porous structure having a structural period, measured as described in the specification, of 20 nm or larger and 10 μm or smaller, and the metal composite carbon material having small pores on the surface thereof having an average diameter, measured as described in the specification, of 0.4 nm to 10 nm, wherein the average diameter of the metal fine particles, measured as described in the specification, is 8pm or less, and the metal fine particles contain a transition metal element which is one or more selected from the group consisting of ruthenium, rhodium, palladium, osmium, iridium and platinum.
An alloy for roller bearings of aircraft consisting of (in percent by weight) 0.45 to 1.0 % carbon max. 2.0 % manganese max. 1.0 % silicon 8.5 to 11.5 % chromium 1.0 to 4.5 % molybdenum 1.0 to 2.5 % vanadium max. 2.0 % tungsten max. 0.5 % niobium max. 0.5 % tantalum max. 3.0 % nickel max. 0.5 % cobalt max. 0.1 % aluminum max. 0.01 % nitrogen remainder iron and production-related impurities, wherein a carbide fraction amounts to 0.5 to 7 percent by volume and a fraction of metal carbides of type M 7 C 3 amounts to less than 3 percent by volume.
A first device, the first device being a street lamp, for driving a first load, the first load being a light-emitting-element, which first device comprises - a first driver configured to be coupled to the first load and configured to drive the first load, and - a first controller coupled to the first driver and configured to control the first driver, which first controller is further configured to receive a first position signal from a first position sensor, which first position signal is configured to define a first position of the first device, and which first controller is further configured to receive a first direction signal from a first direction sensor, which first direction signal is configured to define a first direction of the first device; wherein the first controller is configured to forward via wireless communication the first position signal, the first direction signal and an identification together to a commissioning apparatus for distinguishing the first device and a second device from each other; - the first position sensor coupled to the first controller; - the first direction sensor coupled to the first controller. - a first driver configured to be coupled to the first load and configured to drive the first load, and - a first controller coupled to the first driver and configured to control the first driver, which first controller is further configured to receive a first position signal from a first position sensor, which first position signal is configured to define a first position of the first device, and which first controller is further configured to receive a first direction signal from a first direction sensor, which first direction signal is configured to define a first direction of the first device; - the first position sensor coupled to the first controller; - the first direction sensor coupled to the first controller.
A probe consisting of the following parts indicated in 5' to 3' order: a) a first part comprising a nucleotide sequence of between 14 and 200 nucleotides that is complementary to a target sequence and is similar to a reverse primer, b) a second part functioning as a spacer and comprising at least one nucleotide which is not complementary to the target sequence, c) a third part comprising a nucleotide sequence of between 200 and 100,000 nucleotides which is not complementary to said target sequence, wherein said nucleotides are composed of only 3 different types of nucleotides chosen from the 5 different types A, C, G, T or U and wherein 10 to 100% of said nucleotides are labeled and d) a fourth part comprising a nucleotide sequence which is not complementary to said target sequence but is complementary to a forward primer.
A method for refining a high manganese steel comprising: when refining to a steel containing 5% by mass or more of manganese, a decarburization step of performing a decarburization treatment on a hot metal in a converter to make the hot metal into a molten steel having a low carbon concentration; a reduction step of performing a reduction treatment on the molten steel by adding a manganese source and a silicon source to the molten steel kept in the converter after the decarburization step, wherein the manganese source is at least one of manganese ore, high carbon ferromanganese, medium carbon ferromanganese, low carbon ferromanganese, silicomanganese and metal manganese; and a degassing step of performing a vacuum degassing treatment on the molten steel by a vacuum degassing device after the reduction step, wherein, in the reduction step, the silicon source is added in accordance with an added amount of the manganese source so as to satisfy Formula: 0.013 × W Mn × x Mn x Si ≤ W Si ≤ 0.150 × W Mn × x Mn x Si x Mn: Manganese concentration (% by mass) in manganese source x Si: Silicon concentration (% by mass) in silicon source W Mn: Amount (kg/t) of manganese source added to the molten steel kept in the converter after the decarburization step W Si: Amount (kg/t) of silicon source added to the molten steel kept in the converter after the decarburization step a decarburization step of performing a decarburization treatment on a hot metal in a converter to make the hot metal into a molten steel having a low carbon concentration; a reduction step of performing a reduction treatment on the molten steel by adding a manganese source and a silicon source to the molten steel kept in the converter after the decarburization step, wherein the manganese source is at least one of manganese ore, high carbon ferromanganese, medium carbon ferromanganese, low carbon ferromanganese, silicomanganese and metal manganese; and a degassing step of performing a vacuum degassing treatment on the molten steel by a vacuum degassing device after the reduction step, wherein, in the reduction step, the silicon source is added in accordance with an added amount of the manganese source so as to satisfy Formula: 0.013 × W Mn × x Mn x Si ≤ W Si ≤ 0.150 × W Mn × x Mn x Si x Mn: Manganese concentration (% by mass) in manganese source x Si: Silicon concentration (% by mass) in silicon source W Mn: Amount (kg/t) of manganese source added to the molten steel kept in the converter after the decarburization step W Si: Amount (kg/t) of silicon source added to the molten steel kept in the converter after the decarburization step x Mn: Manganese concentration (% by mass) in manganese source x Si: Silicon concentration (% by mass) in silicon source W Mn: Amount (kg/t) of manganese source added to the molten steel kept in the converter after the decarburization step W Si: Amount (kg/t) of silicon source added to the molten steel kept in the converter after the decarburization step
A method of manufacturing a carbon nanotube thin film, the method comprising: supplying a carbon nanotube precursor and a catalyst precursor to an inside of a reaction chamber; generating catalyst particles by pyrolyzing the catalyst precursor in the reaction chamber; forming a plurality of carbon nanotubes by pyrolyzing the carbon nanotube precursor in the reaction chamber; and disposing the plurality of carbon nanotubes at a speed of greater than or equal to 1 meter per minute and less than or equal to 20 meters per minute onto a surface of a roller portion rotating around an axis, wherein each carbon nanotube of the plurality of carbon nanotubes is aligned on the roller portion in a direction perpendicular to an extension direction of the plurality of carbon nanotubes, the alignment angle of the plurality of carbon nanotubes has a deviation of 15° to 45° in a clockwise or counterclockwise direction, and a Raman intensity ratio of a G band of an alignment direction of the plurality of carbon nanotubes to a G band of a direction perpendicular to the alignment direction of the plurality of carbon nanotubes is greater than or equal to 1.5 and less than or equal to 4. supplying a carbon nanotube precursor and a catalyst precursor to an inside of a reaction chamber; generating catalyst particles by pyrolyzing the catalyst precursor in the reaction chamber; forming a plurality of carbon nanotubes by pyrolyzing the carbon nanotube precursor in the reaction chamber; and disposing the plurality of carbon nanotubes at a speed of greater than or equal to 1 meter per minute and less than or equal to 20 meters per minute onto a surface of a roller portion rotating around an axis, wherein each carbon nanotube of the plurality of carbon nanotubes is aligned on the roller portion in a direction perpendicular to an extension direction of the plurality of carbon nanotubes, the alignment angle of the plurality of carbon nanotubes has a deviation of 15° to 45° in a clockwise or counterclockwise direction, and a Raman intensity ratio of a G band of an alignment direction of the plurality of carbon nanotubes to a G band of a direction perpendicular to the alignment direction of the plurality of carbon nanotubes is greater than or equal to 1.5 and less than or equal to 4.
A cathode active material comprising: polycrystalline lithium manganese oxide; and a boron-containing coating layer on a surface of the polycrystalline lithium manganese oxide, characterized in that the polycrystalline lithium manganese oxide particles are in a form of secondary particles in which two or more primary particles having an average crystal diameter of 152 nm to 300 nm are agglomerated. polycrystalline lithium manganese oxide; and a boron-containing coating layer on a surface of the polycrystalline lithium manganese oxide, characterized in that the polycrystalline lithium manganese oxide particles are in a form of secondary particles in which two or more primary particles having an average crystal diameter of 152 nm to 300 nm are agglomerated.
A biosensor comprising: a wire layer, a probe that makes contact with a surface of a living body, and a connector that electrically connects the wire layer with the probe, wherein the connector is prepared from an electrically conductive composition comprising an electrical conductive polymer, a binder resin, and a plasticizer, wherein the plasticizer contains a polyol compound, and a ratio of the polyol compound relative to 100 parts by mass of the electrical conductive polymer is 300 parts by mass or more and 1000 parts by mass or less. a wire layer, a probe that makes contact with a surface of a living body, and a connector that electrically connects the wire layer with the probe, wherein the connector is prepared from an electrically conductive composition comprising an electrical conductive polymer, a binder resin, and a plasticizer, wherein the plasticizer contains a polyol compound, and a ratio of the polyol compound relative to 100 parts by mass of the electrical conductive polymer is 300 parts by mass or more and 1000 parts by mass or less.
A beverage vessel, comprising: - a beverage container, in which a beverage may be stored, wherein said beverage container has an upper opening through which beverage may be poured in and poured out of the beverage container and a wall extending from the opening to the bottom of the beverage container, wherein the beverage container comprises at least one concave portion in the wall, wherein the concave portion forms a recess directed to the middle axis of the beverage container; and - a closure element adapted to be positioned in the upper opening of the beverage container; - wherein said closure element comprises a locking mechanism, said locking mechanism comprising - at least three locking arms (612, 614, 616, 618) extending in radial direction of the beverage vessel to the beverage container, - wherein at least one arm (612, 614, 616, 618) of the locking element comprises an elastic portion being elastic in the radial direction of the beverage vessel; and - wherein said locking arms (612, 614, 616, 618) releasably engage in the concave portion in the wall for releasably locking the closure element to the beverage container, characterized in that said locking mechanism locks the closure element to the beverage container so that the closure element cannot be moved downward or upward. - a beverage container, in which a beverage may be stored, wherein said beverage container has an upper opening through which beverage may be poured in and poured out of the beverage container and a wall extending from the opening to the bottom of the beverage container, wherein the beverage container comprises at least one concave portion in the wall, wherein the concave portion forms a recess directed to the middle axis of the beverage container; and - a closure element adapted to be positioned in the upper opening of the beverage container; - wherein said closure element comprises a locking mechanism, said locking mechanism comprising - at least three locking arms (612, 614, 616, 618) extending in radial direction of the beverage vessel to the beverage container, - wherein at least one arm (612, 614, 616, 618) of the locking element comprises an elastic portion being elastic in the radial direction of the beverage vessel; and - wherein said locking arms (612, 614, 616, 618) releasably engage in the concave portion in the wall for releasably locking the closure element to the beverage container,