mhurhangee/ep-ind-claims huggingface dataset:
Line for manufacturing packagings producing folding boxes (CA1, CA2) from plate elements, the manufacturing line comprises: a station for feeding plate elements supplying the line in a continuous flow with the plate elements which advance in the line in a direction of transport, a unit for shaping plate elements which successively shapes the plate elements by slitting, scoring and cutting operations, provided with pairs of rotary cylindrical shafts (230a - 233a, 230b - 233b) and with a cutting unit, which engage to produce, in the shaped plate element, two juxtaposed folding box layers (P1, P2), arranged transversally to the direction of transport, which are associated in series, and connected to one another by attachment points, a folding/gluing unit which forms folded assemblies by folding and gluing the shaped plate elements, a counting/ejection unit which forms stacks of folded assemblies (6, 7), and a unit for separating folding boxes comprising means arranged to produce, by breaking the attachment points, two separate batches (81, 82) of stacked folding boxes from each stack of folded assemblies (6, 7), and characterised in that the unit for separating folding boxes is arranged downstream from the folding/gluing unit in the direction of transport. a station for feeding plate elements supplying the line in a continuous flow with the plate elements which advance in the line in a direction of transport, a unit for shaping plate elements which successively shapes the plate elements by slitting, scoring and cutting operations, provided with pairs of rotary cylindrical shafts (230a - 233a, 230b - 233b) and with a cutting unit, which engage to produce, in the shaped plate element, two juxtaposed folding box layers (P1, P2), arranged transversally to the direction of transport, which are associated in series, and connected to one another by attachment points, a folding/gluing unit which forms folded assemblies by folding and gluing the shaped plate elements, a counting/ejection unit which forms stacks of folded assemblies (6, 7), and a unit for separating folding boxes comprising means arranged to produce, by breaking the attachment points, two separate batches (81, 82) of stacked folding boxes from each stack of folded assemblies (6, 7), and characterised in that the unit for separating folding boxes is arranged downstream from the folding/gluing unit in the direction of transport.
A photochemical method for intermittently or continuously preparing trichloromethyl-substituted benzene, characterized in that an aromatic compound of formula a C 6 H 6-a-b (CH 3) b or a pendant alkyl chloride thereof as a raw material is reacted with chlorine under illumination conditions to prepare trichloromethyl-substituted benzene, wherein the illumination has a wavelength between 350 nm and 700 nm and a wavelength amplitude of no more than 200 nm, and wherein chlorine feeding is initiated under conditions of a starting reaction temperature between 0°C and 85°C and a starting illuminance between 2000 Lux and 55000 Lux, for a first reaction stage where the reaction temperature is controlled to be no higher than 120°C at the illuminance; and then the remaining amount of chlorine is fed at a higher reaction temperature and/or under higher illuminance until the reaction is completed; wherein X is a chlorine, bromine or fluorine atom, "a" is an integer selected from 0, 1, 2, 3, 4 and 5, "b" is an integer selected from 1, 2, 3 and 4, and a+b≤6; and the pendant alkyl chloride refers to a compound where hydrogen atoms on the pendant alkyl groups in the aromatic compound are not completely substituted by chlorine atoms.
A jettable composition, comprising: cesium tungsten oxide nanoparticles; a zwitterionic stabilizer; a surfactant; a balance of water; wherein the zwitterionic stabilizer is selected from the group consisting of a C2 to C8 betaine, or a C2 to C8 aminocarboxylic acid having a solubility of at least 10 g in 100 g of water, and combinations thereof; and wherein a weight ratio of the cesium tungsten oxide nanoparticles to the zwitterionic stabilizer ranges from 1:10 to 10:1; wherein, when the zwitterionic stabilizer is C2 to C8 betaine, the C2 to C8 betaine is present in an amount ranging from about 8 wt% to about 35 wt% of a total wt% of the jettable composition; or wherein, when the zwitterionic stabilizer is C2 to C8 aminocarboxylic acid, the C2 to C8 aminocarboxylic acid is selected from the group consisting of beta-alanine, gamma-aminobutyric acid, glycine, and combinations thereof; and the C2 to C8 aminocarboxylic acid is present in an amount ranging from about 2 wt% to about 20 wt% of a total wt% of the jettable composition. cesium tungsten oxide nanoparticles; a zwitterionic stabilizer; a surfactant; a balance of water; wherein the zwitterionic stabilizer is selected from the group consisting of a C2 to C8 betaine, or a C2 to C8 aminocarboxylic acid having a solubility of at least 10 g in 100 g of water, and combinations thereof; and wherein a weight ratio of the cesium tungsten oxide nanoparticles to the zwitterionic stabilizer ranges from 1:10 to 10:1; wherein, when the zwitterionic stabilizer is C2 to C8 betaine, the C2 to C8 betaine is present in an amount ranging from about 8 wt% to about 35 wt% of a total wt% of the jettable composition; or wherein, when the zwitterionic stabilizer is C2 to C8 aminocarboxylic acid, the C2 to C8 aminocarboxylic acid is selected from the group consisting of beta-alanine, gamma-aminobutyric acid, glycine, and combinations thereof; and the C2 to C8 aminocarboxylic acid is present in an amount ranging from about 2 wt% to about 20 wt% of a total wt% of the jettable composition.
A terminal used as a first terminal that adapted to select a relay apparatus (100, 102, 103, 104) used for communication between the first terminal and a second terminal of a plurality of terminals of a system including the plurality of terminals that communicate with each other and a plurality of relay apparatuses (100, 102,103, 104), comprising: acquisition means configured to acquire addresses of the plurality of relay apparatuses (100,102, 103,104); measurement means configured to measure a delay time between the first terminal and each relay apparatus (100, 102, 103, 104) of the plurality of relay apparatuses using the addresses acquired by the acquisition means; selection means configured to select a first relay apparatus for which the delay time is the smallest from the plurality of relay apparatuses (100, 102, 103, 104) based on the delay times Lime measured by the measurement means; notification means configured to notify the second terminal of an address of the first relay apparatus of the first terminal; the terminal being characterized by comprising reception means configured to receive, from the second terminal, an address of a second relay apparatus that is selected by the second terminal by measuring a delay time between the second terminal and each relay apparatus of the plurality of relay apparatuses (100, 102, 103, 104), and for which the delay time is smallest; and communication means configured to perform communication with the second terminal via the first relay apparatus and the second relay apparatus using the address of the first relay apparatus as a transmission source address and using the address of the second relay apparatus as a transmission destination address. acquisition means configured to acquire addresses of the plurality of relay apparatuses (100,102, 103,104); measurement means configured to measure a delay time between the first terminal and each relay apparatus (100, 102, 103, 104) of the plurality of relay apparatuses using the addresses acquired by the acquisition means; selection means configured to select a first relay apparatus for which the delay time is the smallest from the plurality of relay apparatuses (100, 102, 103, 104) based on the delay times Lime measured by the measurement means; notification means configured to notify the second terminal of an address of the first relay apparatus of the first terminal; the terminal being characterized by comprising reception means configured to receive, from the second terminal, an address of a second relay apparatus that is selected by the second terminal by measuring a delay time between the second terminal and each relay apparatus of the plurality of relay apparatuses (100, 102, 103, 104), and for which the delay time is smallest; and communication means configured to perform communication with the second terminal via the first relay apparatus and the second relay apparatus using the address of the first relay apparatus as a transmission source address and using the address of the second relay apparatus as a transmission destination address.
A multilevel inverter comprising; a plurality of bridges, each bridge configured to receive a respective portion of an input DC power and convert the respective portion of the input DC power to a respective portion of converted AC power; at least one bridge controller for operating at least one of the plurality of bridges in a square waveform mode; a plurality of transformers, each transformer coupled to a respective bridge and configured to increase a voltage level of the respective portion of converted AC power of the respective bridge, wherein each of the plurality of transformers comprises a primary winding coupled to the respective bridge and a secondary winding paired with the primary winding and coupled in series with the other secondary windings to combine the respective increased voltage level portions of the converted AC power; and a grid converter electrically coupled to the series connected secondary windings of the plurality of transformers and configured to provide output power for a power grid. a plurality of bridges, each bridge configured to receive a respective portion of an input DC power and convert the respective portion of the input DC power to a respective portion of converted AC power; at least one bridge controller for operating at least one of the plurality of bridges in a square waveform mode; a plurality of transformers, each transformer coupled to a respective bridge and configured to increase a voltage level of the respective portion of converted AC power of the respective bridge, wherein each of the plurality of transformers comprises a primary winding coupled to the respective bridge and a secondary winding paired with the primary winding and coupled in series with the other secondary windings to combine the respective increased voltage level portions of the converted AC power; and a grid converter electrically coupled to the series connected secondary windings of the plurality of transformers and configured to provide output power for a power grid.
An aqueous binder composition for manufacturing a sacrificial corrosion-protective coating, said composition being free of chromates, and also preferably free of borates and molybdates, characterized in that said binder composition has a pH of less than 6 and comprises a binder, particles of at least one metal oxide and at least one metallic phosphate, said binder comprising a hydrolyzed organosilane oligomer, and in that the proportion by weight of said particles of at least one metal oxide relative to the total dry weight of said aqueous binder composition is greater than or equal to 75%.
A cleaning device (50, 62, 66) for a system comprising a horizontally slidable component, in particular a sliding door, for closing an opening and a guide rail for horizontally guiding the component when sliding in a horizontally sliding direction, the cleaning device (50, 62, 66) having a fastening means for fastening the cleaning device (50,62, 66) to the component and a cleaning element for cleaning the guide rail, characterized in that the fastening means has a spring steel which is angled at a bending line, so that an angled segment is present which extends, in a mounted state of the cleaning device (50, 62, 66) in which this is fastened to the component, between the guide rail and an end face of the component adjacent to the guide rail, and the cleaning element is disposed at the angled segment, wherein an absorber for preventing a transmission of sound to the component is present, which sound occurs in the mounted state of the cleaning device (50, 62, 66) when sliding the component, the absorber is disposed such that in the mounted state of the cleaning device (50, 62, 66) it is located between the fastening means and the component, and the fastening means is configured such that the cleaning element is attached at a side of the segment facing the guide rail and the absorber at a side of the segment facing the end face of the component.
A cross-lapped multilayered batt comprising: one or more layers of a carded web of staple fibers; and one or more continuous filament fiber layers (104, 106) comprising a plurality of continuous filament fibers, wherein each layer of the multilayered batt comprises the one or more layers of the carded web and the continuous filament fiber layers the multilayered batt comprises an X direction along a width (Wc) of the batt, a Y direction along a length (Lc) of the multilayered batt, and a Z direction extending through a thickness (Tc) of the multilayered batt, wherein at least some staple fibers of at least one layer of the carded web are mechanically entangled with at least some other staple fibers of another layer of carded web, such that the mechanically entangled staple fibers extend along the Z direction of the multilayered batt, thereby enhancing a Z-directional strength of the multilayered batt, and the multilayered batt is dimensioned and molded to form and maintain a shape. one or more layers of a carded web of staple fibers; and one or more continuous filament fiber layers (104, 106) comprising a plurality of continuous filament fibers, wherein each layer of the multilayered batt comprises the one or more layers of the carded web and the continuous filament fiber layers the multilayered batt comprises an X direction along a width (Wc) of the batt, a Y direction along a length (Lc) of the multilayered batt, and a Z direction extending through a thickness (Tc) of the multilayered batt, wherein at least some staple fibers of at least one layer of the carded web are mechanically entangled with at least some other staple fibers of another layer of carded web, such that the mechanically entangled staple fibers extend along the Z direction of the multilayered batt, thereby enhancing a Z-directional strength of the multilayered batt, and the multilayered batt is dimensioned and molded to form and maintain a shape. each layer of the multilayered batt comprises the one or more layers of the carded web and the continuous filament fiber layers the multilayered batt comprises an X direction along a width (Wc) of the batt, a Y direction along a length (Lc) of the multilayered batt, and a Z direction extending through a thickness (Tc) of the multilayered batt, wherein at least some staple fibers of at least one layer of the carded web are mechanically entangled with at least some other staple fibers of another layer of carded web, such that the mechanically entangled staple fibers extend along the Z direction of the multilayered batt, thereby enhancing a Z-directional strength of the multilayered batt, and the multilayered batt is dimensioned and molded to form and maintain a shape.
A method of differentiating areas in a series of N primary digital images of a tissue section, wherein N is an integer >1, thereby creating a new image, said method comprising the steps of: a) providing a series of N primary digital images comprising first marker areas, wherein an image I n+1 comprises at least the same first marker areas as a primary digital image I n for 1≤n<N wherein n is an integer; b) evaluating (211, 222, 310) every primary digital image I n for 1≤n≤N according to predetermined selection criteria and identifying as image marker areas those first marker areas fulfilling the predetermined selection criteria, and storing information about any such image marker area in or in connection/association with a resulting corresponding secondary digital image, thereby obtaining a series of N secondary digital images; c) providing a new image I new of the tissue section without marker areas; d) inserting (212, 224) new image marker areas in the new image I new, said new image marker areas having the same shape and location as image marker areas present in image I 1, and said image marker areas being identifiable in I new, by a unique feature; e) for every n for 2≤n≤N of the series of secondary digital images obtained in step b), inserting new image marker areas in the new image I new, said new image marker areas having the same shape and location as image marker areas present in image I n but not in image I n-1, and said new image marker areas being identifiable in I new by a unique feature. a) providing a series of N primary digital images comprising first marker areas, wherein an image I n+1 comprises at least the same first marker areas as a primary digital image I n for 1≤n<N wherein n is an integer; b) evaluating (211, 222, 310) every primary digital image I n for 1≤n≤N according to predetermined selection criteria and identifying as image marker areas those first marker areas fulfilling the predetermined selection criteria, and storing information about any such image marker area in or in connection/association with a resulting corresponding secondary digital image, thereby obtaining a series of N secondary digital images; c) providing a new image I new of the tissue section without marker areas; d) inserting (212, 224) new image marker areas in the new image I new, said new image marker areas having the same shape and location as image marker areas present in image I 1, and said image marker areas being identifiable in I new, by a unique feature; e) for every n for 2≤n≤N of the series of secondary digital images obtained in step b), inserting new image marker areas in the new image I new, said new image marker areas having the same shape and location as image marker areas present in image I n but not in image I n-1, and said new image marker areas being identifiable in I new by a unique feature.
A system enabling transmission of a medical history, comprising: a plurality of health organization networks, at least one of the health organization networks comprising a repository holding a medical history; a plurality of ledgers encoding changes to the medical history; a central service provider connected to each of the plurality of health organization networks via a communication link associated with each health organization network; and a server enhancement hosted by the central service provider, the server enhancement configured to: provide a private subnetwork between at least a portion of the health organization networks through all or a portion of the communication links; and direct maintenance of at least one ledger by the health organization networks to reflect changes to the medical history, characterized in that the system comprises a network of patient monitors configured to communicate with one or more of the health organization networks via the central service provider through the communication link.
A method of controlling a primary device to perform an activity comprising: concurrently detecting multiple unique device identifiers (UDIDs) in proximity of the primary device by detecting the multiple UDIDs in a particular order defined by a user-configurable activity association list on the primary device; determining that the multiple UDIDs are associated with the primary device activity; performing the activity when the UDIDs are detected in the particular order and while the concurrent detection of the multiple UDIDs persists; and stopping the activity when the concurrent detection of the multiple UDIDs stops. concurrently detecting multiple unique device identifiers (UDIDs) in proximity of the primary device by detecting the multiple UDIDs in a particular order defined by a user-configurable activity association list on the primary device; determining that the multiple UDIDs are associated with the primary device activity; performing the activity when the UDIDs are detected in the particular order and while the concurrent detection of the multiple UDIDs persists; and stopping the activity when the concurrent detection of the multiple UDIDs stops.
A tissue extraction device, comprising: a hollow tissue harvesting tip rotatably disposed at the distal end of a shaft, said tissue harvesting tip having cutting elements and openings disposed thereon; and a driver mechanism coupled to the tissue harvesting tip and effective to rotate the tissue harvesting tip, wherein the cutting elements comprise cutting surfaces which are disposed around the circumference of the tissue harvesting tip for excise of tissue upon rotation of the tip and wherein the openings are formed in a wall of the tissue harvesting tip to allow excised pieces of tissue to pass into the hollow tip; characterized in that said openings are in the range of about 1 mm to 3 mm across; and the tissue harvesting tip further comprises one or more cutting surfaces on its distal end, to allow distal pressure on the device and the tissue harvesting tip to cut or drill into tissue. a hollow tissue harvesting tip rotatably disposed at the distal end of a shaft, said tissue harvesting tip having cutting elements and openings disposed thereon; and a driver mechanism coupled to the tissue harvesting tip and effective to rotate the tissue harvesting tip, wherein the cutting elements comprise cutting surfaces which are disposed around the circumference of the tissue harvesting tip for excise of tissue upon rotation of the tip and wherein the openings are formed in a wall of the tissue harvesting tip to allow excised pieces of tissue to pass into the hollow tip; characterized in that said openings are in the range of about 1 mm to 3 mm across; and the tissue harvesting tip further comprises one or more cutting surfaces on its distal end, to allow distal pressure on the device and the tissue harvesting tip to cut or drill into tissue.