mhurhangee/ep-ind-claims huggingface dataset:
An insulator interposed type plasma processing apparatus including a plasma generating portion (2, A) arranged to generate plasma from a target surface by a vacuum arc discharge under a vacuum environment, a plasma transport tube arranged to transport said plasma generated by said plasma generating portion (2, A), a plasma processing portion (1, C) arranged to process an object to be treated (114, W) by said plasma supplied from said plasma transport tube, a starting end side insulator being interposed between said plasma generating portion (2, A) and said plasma transport tube, a finishing end side insulator being interposed between said plasma transport tube and said plasma processing portion (1, C). said plasma generating portion (2, A), said plasma transport tube, and said plasma processing portion being mutually separated electrically so that an electric influence from said plasma generating portion (2, A) and said plasma processing portion (1, C) on said plasma transport tube is blocked, and said plasma transport tube being divided into a plurality of small transport tubes (B01, B23, B2, B3), characterized in that the insulator interposed type plasma processing apparatus also includes an intermediate insulator (II2, II2) interposed between neighboring said small transport tubes (B01, B23, B2, B3) such that said small transport tubes (B01, B23, B2, B3) are electrically separated from one another, and an electric influence on an arbitrary said small transport tube (B01, B23, B2, B3) from other said small transport tubes (B01, B23, B2, B3) is blocked, also characterized in that the insulator interposed type plasma processing apparatus further includes a bias power supply (EB01, EB23, EB2, EB3) attached to each one of said small transport tubes (B01, B23, B2, B3) and arranged to set the electric potential of the each one of said small transport tubes (B01, B23, B2, B3) to an arbitrary positive or negative electric potential or GND (ground electric potential), the bias power supply being also arranged to set individually the electric potentials of adjacent small transport tubes (B01, B23, B2, B3) to a high potential and a low potential within a range including the positive, negative, and ground electrical potentials, such that positive droplets are electrically adsorbed to a wall surface of said small transport tubes by an electric force from said adjacent high potential to said low potential, and such that negative droplets are electrically adsorbed to a wall surface of said small transport tubes by an electric force from said low potential to said high potential.
A chemically sterilized bioimplant comprising a biological tissue and heparin, the biological tissue being selected from the group comprising decellularized crushed bone fragments, decellularized and/or defatted bone, tendon, ligament, fascia and combinations thereof, and/or bone-connective tissue combinations, wherein the starting tissue is not subjected to a processing step other than decellularization and/or defatting prior to conjugation of the heparin to the tissue; wherein the heparin is covalently conjugated directly to the biological tissue, and the bioimplant is sterilized with a sterilizing agent, the sterilizing agent being a carbodiimide in the presence of a C 2 -C 4 alkanol, and crosslinked with a carbodiimide. wherein the heparin is covalently conjugated directly to the biological tissue, and the bioimplant is sterilized with a sterilizing agent, the sterilizing agent being a carbodiimide in the presence of a C 2 -C 4 alkanol, and crosslinked with a carbodiimide.
A method for providing redundant connectivity between an Ethernet Automatic Protection Switching (EAPS) access network and a Virtual Private LAN Service, VPLS, network, the method comprising: providing first and second VPLS nodes from a plurality of VPLS nodes (110, 112, 114, 116), which are linked with each other by pseudowire links, wherein the first and second VPLS nodes are linked with each other by an EAPS shared-link, the first VPLS node functioning as an EAPS controller node; establishing an EAPS ring coupling the first VPLS node with the second VPLS node and a plurality of EAPS nodes; characterized in that: - the controller node disables (370, 360) all pseudowire links, PWs, associated with the first VPLS node in response to detecting a network failure of the EAPS shared-link between the first and second VPLS nodes (110, 114) if any of the EAPS nodes has a path to both of the first and second VPLS nodes, and - the controller node maintains (380, 360) all pseudowire links associated with the first VPLS node in response to detecting a dual network failure, the dual network failure including a failed EAPS shared-link between the first and second VPLS nodes and none of the EAPS nodes having a path to both the first and second VPLS nodes. providing first and second VPLS nodes from a plurality of VPLS nodes (110, 112, 114, 116), which are linked with each other by pseudowire links, wherein the first and second VPLS nodes are linked with each other by an EAPS shared-link, the first VPLS node functioning as an EAPS controller node; establishing an EAPS ring coupling the first VPLS node with the second VPLS node and a plurality of EAPS nodes; - the controller node disables (370, 360) all pseudowire links, PWs, associated with the first VPLS node in response to detecting a network failure of the EAPS shared-link between the first and second VPLS nodes (110, 114) if any of the EAPS nodes has a path to both of the first and second VPLS nodes, and - the controller node maintains (380, 360) all pseudowire links associated with the first VPLS node in response to detecting a dual network failure, the dual network failure including a failed EAPS shared-link between the first and second VPLS nodes and none of the EAPS nodes having a path to both the first and second VPLS nodes.
A device having a capacitor structure (12; 40; 60; 70; 90; 120) comprising: a capacitor (14; 42; 62; 72; 92; 122) comprising a surface (20, 22; 48; 78; 98; 128) that defines at least one feedthrough aperture (23; 50a-d; 100a-d; 130a-d), wherein the surface (20, 22; 48; 78; 98; 128) comprises a capacitor registration feature (52a-b, 54a-b; 64a-b; 80a-b;); and a ceramic insulator layer (16, 18; 44; 74; 94; 124) attached to the surface, wherein the ceramic insulator layer (16, 18; 44; 74; 94; 124) defines at least one feedthrough aperture (56a-d;104a-d) and includes a ceramic insulator layer registration feature (58a-b; 82a-b; 134a-b), and wherein the capacitor registration feature (52a-b, 54a-b; 64a-b; 80a-b;) and the ceramic insulator layer registration feature (58a-b; 82a-b; 134a-b) cooperate to substantially align the ceramic insulator layer (16, 18; 44; 74; 94; 124) to the capacitor (14; 42; 62; 72; 92; 122) and to substantially align the at least one feedthrough aperture (56a-d;104a-d) defined in the ceramic insulator layer (16, 18; 44; 74; 94; 124) with the at least one feedthrough aperture (23; 50a-d; 100a-d; 130a-d) defined in the surface (20, 22; 48; 78; 98; 128) of the capacitor (14; 42; 62; 72; 92; 122). a capacitor (14; 42; 62; 72; 92; 122) comprising a surface (20, 22; 48; 78; 98; 128) that defines at least one feedthrough aperture (23; 50a-d; 100a-d; 130a-d), wherein the surface (20, 22; 48; 78; 98; 128) comprises a capacitor registration feature (52a-b, 54a-b; 64a-b; 80a-b;); and a ceramic insulator layer (16, 18; 44; 74; 94; 124) attached to the surface, wherein the ceramic insulator layer (16, 18; 44; 74; 94; 124) defines at least one feedthrough aperture (56a-d;104a-d) and includes a ceramic insulator layer registration feature (58a-b; 82a-b; 134a-b), and wherein the capacitor registration feature (52a-b, 54a-b; 64a-b; 80a-b;) and the ceramic insulator layer registration feature (58a-b; 82a-b; 134a-b) cooperate to substantially align the ceramic insulator layer (16, 18; 44; 74; 94; 124) to the capacitor (14; 42; 62; 72; 92; 122) and to substantially align the at least one feedthrough aperture (56a-d;104a-d) defined in the ceramic insulator layer (16, 18; 44; 74; 94; 124) with the at least one feedthrough aperture (23; 50a-d; 100a-d; 130a-d) defined in the surface (20, 22; 48; 78; 98; 128) of the capacitor (14; 42; 62; 72; 92; 122).
A method for forming an image of an object with imaging means including an array of pixel units, each pixel unit including a photosensitive section including a photoelectric converting section, a plurality of charge storage sections (10151, 10152, 10153, 10154) which function independently and a plurality of gates (TX1, TX2, TX3, TX4) for supplying charge to the plurality of charge storage sections (10151, 1052, 10153, 10154) respectively, and a difference output section, the imaging means further including an imaging control section which is adapted to control the plurality of gates (TX, TX2, TX3, TX4) so that amounts of charge are stored successively in at least four of the plurality of charge storage sections of each pixel for the object in such a way that outputs caused by the amounts of charge stored in the at least four of the plurality of charge storage sections are different, the successive charging operations are repeated and then an image is formed based on the outputs of the plurality of charge storage sections of each pixel, the imaging means further including illuminating means for illuminating the object, the illuminating means being connected to the imaging control section, wherein the imaging control section controls the photosensitive section of the pixel unit and the illuminating means in such a way that the photosensitive section of the pixel unit generates a plurality of outputs under different illuminating conditions and such that amounts of charge are stored under different illuminating conditions in at least two of the plurality of charge storage sections of each pixel for the object, wherein amounts of charge are stored under two or more types of illuminating conditions and for two or more exposure time periods in at least four of the plurality of charge storage sections of each pixel for the object, wherein said outputs of the at least four of charge storage sections of each pixel are integral values of amounts of charge stored in each of the charge storage sections through at least four exposure time periods, wherein the difference output section forms an image based on differences between outputs of the at least four of charge storage sections of each pixel, wherein the difference output section compares the amount of charge stored in at least one of the charge storage section with a saturation value of the photosensitive section.
A cleaning device for an atomizer with a predetermined outer contour and an external charging electrode, which serves for electrostatic charging of the coating agent to be applied, and with a predetermined cleaning area, in particular for cleaning a rotary atomizer, with a) at least one cleaning brush for cleaning the atomizer, wherein the cleaning brush has a predetermined brush contour and the cleaning device cleans the outer contour of the atomizer within the entire cleaning area, characterized in that b) the brush contour of the cleaning brush is adapted to the outer contour of the atomizer, so that the cleaning brush nestles against the atomizer, and c) the cleaning area of the atomizer also includes the external charging electrode, so that the external charging electrode is also cleaned by the cleaning device. a) at least one cleaning brush for cleaning the atomizer, wherein the cleaning brush has a predetermined brush contour and the cleaning device cleans the outer contour of the atomizer within the entire cleaning area, b) the brush contour of the cleaning brush is adapted to the outer contour of the atomizer, so that the cleaning brush nestles against the atomizer, and c) the cleaning area of the atomizer also includes the external charging electrode, so that the external charging electrode is also cleaned by the cleaning device.
A plate heat exchanger comprising a top head, a bottom head, four side panels (11,12,13,14) and four corner girders (21,22,23,24), wherein the side panels (11,12,13,14) and the corner girders (21,22,23,24) extend along a longitudinal direction from the bottom head to the top head, wherein each side panel (11,12,13,14) is associated with two corner girders (21,22,23,24), wherein the top head, the bottom head, the four side panels (11,12,13,14) and the four corner girders (21,22,23,24) are joined together to form a sealed enclosure for housing a plate pack of stacked heat-exchanging plates, wherein a continuous gasket assembly (6,7,8,9) is arranged in a contact region between at least one side panel (11,12,13,14) and two corner girders (21,22,23,24), the top head and the bottom head, characterized in that the gasket assembly (6,7,8,9) is located in a groove, wherein the gasket assembly (6,7,8,9) is a segmented gasket assembly (6,7,8,9) composed of a plurality of gasket segments, and wherein each gasket segment is made of graphite material.
Device for the treatment of particulate material, with a process chamber for the reception and treatment of the material, a bottom (10, 40) of the process chamber having slots (14, 20; 44, 50), by which process air can be introduced with a horizontal movement component into the process chamber, the slots (14, 20; 44, 50) being oriented in such a way that a first flow which has a movement component directed from the outside inwards occurs in a radially outer region, and in such a way that a second flow which has a flow component directed from the inside outwards occurs in a radially inner region, the two opposite flows (19, 25) reaching one another along a circular break-up zone (26, 56), characterized in that the slots (14, 20; 44, 50) are led approximately tangentially to the circular break-up zone (26, 56), as seen perpendicularly to the bottom (10, 40).
An endotracheal tube insertion device comprising: an insertion member; an optical assembly including an optical housing and an elongated flexible member disposed within the optical housing, the elongated flexible member having a first end which is a distal end and a second end which is a proximal end, the elongated flexible member movably mounted to the insertion member; an intubation assembly including a rod having a first end which is a distal end and a second end which is a proximal end; and an endotracheal tube carried by the rod; characterised in that the rod has a guide system formed at said first end thereof, the guide system including a guide rail having an elongated guide member portion laterally retained in a channel formed in the optical assembly and configured for releasable attachment to the first end of the elongated flexible member of the optical assembly; wherein the first end of the rod has a substantially cone-shaped surface defining a tapered leading end. an insertion member; an optical assembly including an optical housing and an elongated flexible member disposed within the optical housing, the elongated flexible member having a first end which is a distal end and a second end which is a proximal end, the elongated flexible member movably mounted to the insertion member; an intubation assembly including a rod having a first end which is a distal end and a second end which is a proximal end; and an endotracheal tube carried by the rod; characterised in that the rod has a guide system formed at said first end thereof, the guide system including a guide rail having an elongated guide member portion laterally retained in a channel formed in the optical assembly and configured for releasable attachment to the first end of the elongated flexible member of the optical assembly; wherein the first end of the rod has a substantially cone-shaped surface defining a tapered leading end.
A method for detecting whether a packet from a plurality of packets transmitted by at least one transmitting station over a network has been played back, each packet comprising a message and a packet identifier, the plurality of packets being successively transmitted over several consecutive time periods, the method including the following steps: - reception of the packet by at least one receiving station and reading of the identifier of the received packet to obtain a received identifier, - consultation, by the receiving station, of a database of identifiers already received to determine whether the received identifier has already been received, and - if the received identifier has not already been received, updating the database to include the received identifier, characterized in that: - the identifier includes an indicator of belonging to groups of packets, - the database includes one or more sub-tables suitable for storing the identifiers of packets already having been received, each sub-table respectively being dedicated to one of the groups, and - the method further includes a step for managing the database including conditional erasure of any one of the sub-tables if all of the packets of the group to which that sub-table is dedicated have been received. - reception of the packet by at least one receiving station and reading of the identifier of the received packet to obtain a received identifier, - consultation, by the receiving station, of a database of identifiers already received to determine whether the received identifier has already been received, and - if the received identifier has not already been received, updating the database to include the received identifier, - the identifier includes an indicator of belonging to groups of packets, - the database includes one or more sub-tables suitable for storing the identifiers of packets already having been received, each sub-table respectively being dedicated to one of the groups, and - the method further includes a step for managing the database including conditional erasure of any one of the sub-tables if all of the packets of the group to which that sub-table is dedicated have been received.
A positive electrode material for a lithium ion battery consisting of: electrode active material particles coated with a carbonaceous film, wherein the electrode active material particles are made of primary particles and secondary particles, which are agglomerates of the primary particles, and wherein the electrode active material is LiFePO 4, and characterized in that a powder resistance is 500 Ω·cm or more and 50000 Ω·cm or less, a mass of the carbonaceous film per unit specific surface area is 0.7 mg/m 2 or more and 1.1 mg/m 2 or less, and Formula is satisfied, Y ≥ 4.91 × 10 6 × e − 9.021 X Y: powder resistance (Ω·cm) X: mass of carbonaceous film per unit specific surface area (mg/m 2), wherein the powder resistance and the mass of the carbonaceous film per unit specific surface area are determined as disclosed in the description. electrode active material particles coated with a carbonaceous film, wherein the electrode active material particles are made of primary particles and secondary particles, which are agglomerates of the primary particles, and wherein the electrode active material is LiFePO 4, and characterized in that a powder resistance is 500 Ω·cm or more and 50000 Ω·cm or less, a mass of the carbonaceous film per unit specific surface area is 0.7 mg/m 2 or more and 1.1 mg/m 2 or less, and Formula is satisfied, Y ≥ 4.91 × 10 6 × e − 9.021 X Y: powder resistance (Ω·cm) X: mass of carbonaceous film per unit specific surface area (mg/m 2), wherein the powder resistance and the mass of the carbonaceous film per unit specific surface area are determined as disclosed in the description.
A light source configured to receive a longitudinally and transversally multi-mode pump beam having a linewidth greater than 10 GHz and an M 2 value of 3 or greater from a pump source, comprising: an Optical Parametric Oscillator comprising a single-mode optical cavity containing a nonlinear crystal configured to receive light from the pump source and produce a first light beam and a second light beam, the single-mode cavity configured to resonate only one transversal mode of the first light beam or the second light beam; and a wave guide configured to convey the pump beam to the OPO, wherein the resonant one of the first light beam and the second light beam having macroscopic power leaks out of the OPO-cavity and comprises substantially single transversal mode light having a narrower linewidth than the pump beam. an Optical Parametric Oscillator comprising a single-mode optical cavity containing a nonlinear crystal configured to receive light from the pump source and produce a first light beam and a second light beam, the single-mode cavity configured to resonate only one transversal mode of the first light beam or the second light beam; and a wave guide configured to convey the pump beam to the OPO, wherein the resonant one of the first light beam and the second light beam having macroscopic power leaks out of the OPO-cavity and comprises substantially single transversal mode light having a narrower linewidth than the pump beam.
A pharmaceutical formulation which comprises (i) a capsule, and (ii) a core comprising crystalline 2'-cyano-2'-deoxy-N 4 -palmitoyl-1-β-D-arabinofuranosyl-cytosine and a liquid carrier, wherein the liquid carrier is a medium chain triglyceride oil or a polyglycolized glyceride.
A flexible release sheet material comprising a co-extruded multilayer film including a first layer comprising a polyolefin, and a second layer comprising a silicone based material selected from polydimethylsiloxane-urea (PDMS-urea) copolymers, and from 10% to 50% by weight, preferably from 10% to 40% by weight, more preferably from 15% to 35% by weight, most preferably from 20% to 25% by weight, of a compatibilizer compound selected from ethylene - acrylic ester - maleic anhydride terpolymers, ethylene acrylic acid copolymers, and ethylene vinyl acetate copolymers.
A system for controlling a mobility device, the mobility device including mobility features, sensors, and a status, the system comprising: a user interface subsystem receiving user commands and data from, and providing information to, a user, the user interface subsystem including a user command processor processing the received user commands; a sensor subsystem receiving and processing sensor data from the sensors; a workflow subsystem filtering the processed received user commands based at least on the status of the mobility device, wherein filtering the processed received user commands modifies subsequent user commands that can be received by the user interface subsystem; and a mobility device command subsystem issuing commands to the mobility features based at least on the filtered processed received user commands and the sensor data. a user interface subsystem receiving user commands and data from, and providing information to, a user, the user interface subsystem including a user command processor processing the received user commands; a sensor subsystem receiving and processing sensor data from the sensors; a workflow subsystem filtering the processed received user commands based at least on the status of the mobility device, wherein filtering the processed received user commands modifies subsequent user commands that can be received by the user interface subsystem; and a mobility device command subsystem issuing commands to the mobility features based at least on the filtered processed received user commands and the sensor data.