mhurhangee/ep-ind-claims huggingface dataset:
An oxygen concentrator comprising: at least one canister comprising a first end and a second end; and gas separation adsorbent disposed in the at least one canister, wherein the gas separation adsorbent separates at least some nitrogen from air in the canister to produce oxygen enriched gas, characterized in that the first end of the at least one canister has a diameter larger than a diameter of the second end, wherein the at least one canister is positioned in the oxygen concentrator such that gas passes through the canister from the second end toward the first end during separation of nitrogen from air to produce oxygen enriched gas, and wherein the at least one canister is substantially filled with the gas separation adsorbent, such that the gas separation adsorbent extends through the canister from the second end to the first end. at least one canister comprising a first end and a second end; and gas separation adsorbent disposed in the at least one canister, wherein the gas separation adsorbent separates at least some nitrogen from air in the canister to produce oxygen enriched gas, the first end of the at least one canister has a diameter larger than a diameter of the second end, wherein the at least one canister is positioned in the oxygen concentrator such that gas passes through the canister from the second end toward the first end during separation of nitrogen from air to produce oxygen enriched gas, and wherein the at least one canister is substantially filled with the gas separation adsorbent, such that the gas separation adsorbent extends through the canister from the second end to the first end.
Intermediate network in a ring topology for setting up a connection between two network domains (2a, 2b), having: a first marginal node and a second marginal node, which are marginal nodes of a first network domain and which are connected to one another via a first network connection within the first network domain; a third marginal node and a fourth marginal node, which are marginal nodes of a second network domain and which are connected to one another via a second network connection within the second network domain; a first virtual network connection, which connects the first and the third marginal node via an intermediate network; and a second virtual network connection, which connects the second and the fourth marginal node via the intermediate network, wherein the first network connection, the second network connection, the first virtual network connection and the second virtual network connection have a ring topology on which a connection redundancy protocol is implemented, characterised in that the first marginal node is designated as the master node and is designed to block the first virtual network connection for network traffic between the first and the second network domain (2a, 2b), and to release the second virtual network connection for network traffic between the first and the second network domain (2a, 2b); wherein in the event of a failure of the designated master node one of the further marginal nodes (6b, 7a, 7b) is defined as the new master node. a first marginal node and a second marginal node, which are marginal nodes of a first network domain and which are connected to one another via a first network connection within the first network domain; a third marginal node and a fourth marginal node, which are marginal nodes of a second network domain and which are connected to one another via a second network connection within the second network domain; a first virtual network connection, which connects the first and the third marginal node via an intermediate network; and a second virtual network connection, which connects the second and the fourth marginal node via the intermediate network, wherein the first network connection, the second network connection, the first virtual network connection and the second virtual network connection have a ring topology on which a connection redundancy protocol is implemented, characterised in that the first marginal node is designated as the master node and is designed to block the first virtual network connection for network traffic between the first and the second network domain (2a, 2b), and to release the second virtual network connection for network traffic between the first and the second network domain (2a, 2b); wherein in the event of a failure of the designated master node one of the further marginal nodes (6b, 7a, 7b) is defined as the new master node.
Sealing device (10; 20; 80) for a lift installation, comprising a sealing element (13, 15; 23, 25; 37; 43, 45; 83, 85) and an electromagnetic actuator, wherein - the sealing device can close a sealing gap between a door leaf (31; 41; 81.1, 81.2) of the lift installation and an adjacent sealing surface (14; 24; 44; 84), - the sealing element (13, 15; 23, 25; 37; 43, 45; 83, 85) can be movably fastened in the region of a door of the lift installation, - the electromagnetic actuator is fastenable in the region of the door and on actuation moves the sealing element (13, 15; 23, 25; 37; 43, 45; 83, 85) from a first position to a second position, characterised in that - the electromagnetic actuator or a spring element (23.2, 43.2, 83) in the absence of actuation of the electromagnetic actuator moves the sealing element from its second position back to its first position, and - wherein the sealing device (10; 20; 80) is brought into open setting before or while the door leaf (31; 41; 81.1, 81.2) of the door executes an opening movement. - the sealing device can close a sealing gap between a door leaf (31; 41; 81.1, 81.2) of the lift installation and an adjacent sealing surface (14; 24; 44; 84), - the sealing element (13, 15; 23, 25; 37; 43, 45; 83, 85) can be movably fastened in the region of a door of the lift installation, - the electromagnetic actuator is fastenable in the region of the door and on actuation moves the sealing element (13, 15; 23, 25; 37; 43, 45; 83, 85) from a first position to a second position, characterised in that - the electromagnetic actuator or a spring element (23.2, 43.2, 83) in the absence of actuation of the electromagnetic actuator moves the sealing element from its second position back to its first position, and - wherein the sealing device (10; 20; 80) is brought into open setting before or while the door leaf (31; 41; 81.1, 81.2) of the door executes an opening movement.
Roller inkjet printing machine with at least one print unit (200; 400) and one print substrate, which is implemented as printing substrate web and is run and/or can be run by the print unit (200; 400) and which can be printed in the print unit (200; 400) in an inkjet printing process by at least one inkjet print head (212; 412) with printing ink of a certain shade prepared as water-based ink, wherein the inkjet print head in the print unit (200; 400) points directly to the printing substrate web, characterized in that a printing substrate web, consisting of wood-containing printing paper with surface weight between 35 and 80 g/m2 with at least 2 % weight proportion of groundwood fibres and with surface being printed with Bendtsen roughness level of at least 30 ml/min, is led through the print unit (200; 400) and which, for the purpose of its printing, is directly in interaction with the at least one inkjet print head (2012; 4012) of the print unit (200; 400), in that the inkjet print head has an ink feed reservoir and/or a line connection to an ink feed reservoir with water-based printing ink prepared in the form of an ink, which has as components both colour pigments and a polymer or copolymer, and that the inkjet print head in the print unit (200; 400) points directly to the print substrate wrapped on a central cylinder (201; 401).
Surfactant of formula (la) R 3 -O-(CH 2 -CH 2 -O) q -(CH 2 -CH(R 4)-O) r -H (la) wherein R 3 is 2-propylheptyl, R 4 stands for methyl, q is 5, and r is the range of 6 to 18, wherein the ratio q/r is in the range of 5/18 to 5/6. R 3 is 2-propylheptyl, R 4 stands for methyl, q is 5, and r is the range of 6 to 18, wherein the ratio q/r is in the range of 5/18 to 5/6.
A terminal device comprising: a higher layer processing unit configured to perform addition of one or more secondary cells through a radio resource control, RRC, signaling, receive a medium access control control element, MAC CE, the MAC CE comprising seven Ci fields and one R field, the respective Ci fields indicating secondary cells for respective secondary cell indices i to be activated or deactivated, perform activation or deactivation for the secondary cells according to the Ci fields; characterized in that the number of the Ci fields increases such that the size of the MAC CE increases from one octet to two octets or more in a case that a number of the secondary cells is increased over a predetermined number due to the addition. a higher layer processing unit configured to perform addition of one or more secondary cells through a radio resource control, RRC, signaling, receive a medium access control control element, MAC CE, the MAC CE comprising seven Ci fields and one R field, the respective Ci fields indicating secondary cells for respective secondary cell indices i to be activated or deactivated, perform activation or deactivation for the secondary cells according to the Ci fields;
A data center system, comprising at least one first load balancing device connected with a core network device, a plurality of second load balancing devices each connected with the at least one first load balancing device, and a plurality of servers each connected with the plurality of second load balancing devices, wherein: the first load balancing device is configured to receive a first type network request sent from a client via the core network device and to transmit the first type network request to one of the plurality of second load balancing devices with a first scheduling strategy; the second load balancing device is configured to receive the first type network request sent from the first load balancing device, to convert the first type network request to a second type network request, to apply a source address and destination address translation on the second type network request and to transmit the second type network request after the source address and destination address translation to one of the plurality of servers with a second scheduling strategy; and the server is configured to receive the second type network request sent from the second load balancing device, to generate a second type network response according to the second type network request and to return the second type network response to the corresponding second load balancing device, in which the second load balancing device is configured to set its own address as a source address of the second type network request, and set an address of the server selected with the second scheduling strategy as a destination address of the second type network request. the first load balancing device is configured to receive a first type network request sent from a client via the core network device and to transmit the first type network request to one of the plurality of second load balancing devices with a first scheduling strategy; the second load balancing device is configured to receive the first type network request sent from the first load balancing device, to convert the first type network request to a second type network request, to apply a source address and destination address translation on the second type network request and to transmit the second type network request after the source address and destination address translation to one of the plurality of servers with a second scheduling strategy; and the server is configured to receive the second type network request sent from the second load balancing device, to generate a second type network response according to the second type network request and to return the second type network response to the corresponding second load balancing device, in which the second load balancing device is configured to set its own address as a source address of the second type network request, and set an address of the server selected with the second scheduling strategy as a destination address of the second type network request.
A method for processing video data, the method comprising: receiving a first network abstraction layer unit comprising a portion of the video data for a picture, wherein a NAL unit type of the first NAL unit indicates that the picture is a broken link picture; and based on the NAL unit type of the first NAL unit, detecting that the picture is a broken link picture, wherein: a broken link picture is a random-access picture not at the beginning of a bitstream and may include leading pictures, and such leading pictures may refer to unavailable reference pictures which may not be correctly decoded; and the NAL unit type is: a first distinct NAL unit type indicating that the picture is a broken link picture with leading pictures; or a second distinct NAL unit type indicating that the picture is a broken link picture without leading pictures. a broken link picture is a random-access picture not at the beginning of a bitstream and may include leading pictures, and such leading pictures may refer to unavailable reference pictures which may not be correctly decoded; and the NAL unit type is: a first distinct NAL unit type indicating that the picture is a broken link picture with leading pictures; or a second distinct NAL unit type indicating that the picture is a broken link picture without leading pictures. a first distinct NAL unit type indicating that the picture is a broken link picture with leading pictures; or a second distinct NAL unit type indicating that the picture is a broken link picture without leading pictures.
A pulsating corrugator comprising a plurality of main mold blocks (3, 5, 7) used for in line forming of corrugated pipe of double wall construction, where the corrugated pipe includes an inner wall of smooth wall having a first diameter and an outer corrugated wall attached to said inner wall at an inside edge of each corrugation and extending outwardly therefrom to a second diameter that is greater than said first diameter; at least one secondary mold block upstream of and used in combination with said main mold blocks (3, 5, 7) for selectively forming an inline double wall spigot connection as part of said corrugated pipe with said spigot connector having an inner smooth wall of said first diameter with spigot corrugations attached to said inner smooth wall and of a maximum diameter intermediate said first and second diameters, wherein said at least one secondary mold block is positioned upstream of plastic extrusion outlets when said main blocks are positioned to form said corrugated double wall pipe; a controller for controlling pulsating movement of said main mold blocks (3, 5, 7) and selective use of said at least one secondary mold block to move with said main mold blocks (3, 5, 7) to form said spigot connection, separate from a formed spigot connection and thereafter return to said upstream position, wherein said controller controls the pressure of an air supply that introduces support air between said extruded plastic outlets at a first pressure for each corrugation of said second diameter and at a lesser pressure for supporting a last formed spigot corrugation as the at least one secondary mold block is released from the formed spigot connections and moved to said upstream position. at least one secondary mold block upstream of and used in combination with said main mold blocks (3, 5, 7) for selectively forming an inline double wall spigot connection as part of said corrugated pipe with said spigot connector having an inner smooth wall of said first diameter with spigot corrugations attached to said inner smooth wall and of a maximum diameter intermediate said first and second diameters, wherein said at least one secondary mold block is positioned upstream of plastic extrusion outlets when said main blocks are positioned to form said corrugated double wall pipe; a controller for controlling pulsating movement of said main mold blocks (3, 5, 7) and selective use of said at least one secondary mold block to move with said main mold blocks (3, 5, 7) to form said spigot connection, separate from a formed spigot connection and thereafter return to said upstream position, wherein said controller controls the pressure of an air supply that introduces support air between said extruded plastic outlets at a first pressure for each corrugation of said second diameter and at a lesser pressure for supporting a last formed spigot corrugation as the at least one secondary mold block is released from the formed spigot connections and moved to said upstream position.
A method of operation in a wireless communications network, wherein the communications network includes two or more beam-based transmission points, and wherein each of the two or more beam-based transmission points transmits synchronization signals corresponding to beams transmitted by the respective transmission point, the method comprising: configuring the two or more beam-based transmission points to use non-conflicting radio resources for their respective transmissions of synchronization signals, wherein configuring the two or more beam-based transmission points to use non-conflicting radio resources for their respective transmissions of synchronization signals comprising: assigning different identifiers to the two or more beam-based transmission points, characterized in that: each of the two or more beam-based transmission points is configured, having received the assigned identifier from the network node, to select the radio resources used for synchronization signal transmission in dependence on its assigned identifier, wherein each of the two or more transmission points selecting radio resources comprises: deriving a time shift and/or frequency shift as a function of the assigned identifier; and selecting the radio resources for transmission of the synchronization signals according to the derived time shift and/or frequency shift. configuring the two or more beam-based transmission points to use non-conflicting radio resources for their respective transmissions of synchronization signals, wherein configuring the two or more beam-based transmission points to use non-conflicting radio resources for their respective transmissions of synchronization signals comprising: assigning different identifiers to the two or more beam-based transmission points, characterized in that: each of the two or more beam-based transmission points is configured, having received the assigned identifier from the network node, to select the radio resources used for synchronization signal transmission in dependence on its assigned identifier, wherein each of the two or more transmission points selecting radio resources comprises: deriving a time shift and/or frequency shift as a function of the assigned identifier; and selecting the radio resources for transmission of the synchronization signals according to the derived time shift and/or frequency shift. deriving a time shift and/or frequency shift as a function of the assigned identifier; and selecting the radio resources for transmission of the synchronization signals according to the derived time shift and/or frequency shift.
A process for the catalytic decarboxylative cross-ketonisation of aryl- and aliphatic carboxylic acids comprising the steps of: a) providing a mixture containing: i) an aryl carboxylic acid; ii) an aliphatic carboxylic acid; iii) a metal-containing compound; in which the number of moles of the metal in the mixture is at least equal to 90 % of the sum of the number of moles of aryl carboxylic acid and the number of moles of aliphatic carboxylic acid divided by the valency of the metal said mixture being substantially free of any added solvent; b) heating the mixture at a temperature sufficient to form metal carboxylates; c) further heating the mixture at a temperature sufficient to form a dialiphatic ketone and an aryl aliphatic ketone; d) adding to the reaction mixture of step c): i) aryl carboxylic acid in an amount which corresponds substantially to the amount of aryl carboxylic acid consumed during the formation of the aryl aliphatic ketone in step c); ii) aliphatic carboxylic acid in an amount which corresponds substantially to the amount of aliphatic carboxylic acid consumed during the formation of the aryl aliphatic ketone and the dialiphatic ketone in step c); maintaining the mixture at a temperature sufficient to continue forming the dialiphatic ketone and the aryl aliphatic ketone; e) optionally repeating step d). a) providing a mixture containing: i) an aryl carboxylic acid; ii) an aliphatic carboxylic acid; iii) a metal-containing compound; in which the number of moles of the metal in the mixture is at least equal to 90 % of the sum of the number of moles of aryl carboxylic acid and the number of moles of aliphatic carboxylic acid divided by the valency of the metal said mixture being substantially free of any added solvent; i) an aryl carboxylic acid; ii) an aliphatic carboxylic acid; iii) a metal-containing compound; b) heating the mixture at a temperature sufficient to form metal carboxylates; c) further heating the mixture at a temperature sufficient to form a dialiphatic ketone and an aryl aliphatic ketone; d) adding to the reaction mixture of step c): i) aryl carboxylic acid in an amount which corresponds substantially to the amount of aryl carboxylic acid consumed during the formation of the aryl aliphatic ketone in step c); ii) aliphatic carboxylic acid in an amount which corresponds substantially to the amount of aliphatic carboxylic acid consumed during the formation of the aryl aliphatic ketone and the dialiphatic ketone in step c); maintaining the mixture at a temperature sufficient to continue forming the dialiphatic ketone and the aryl aliphatic ketone; i) aryl carboxylic acid in an amount which corresponds substantially to the amount of aryl carboxylic acid consumed during the formation of the aryl aliphatic ketone in step c); ii) aliphatic carboxylic acid in an amount which corresponds substantially to the amount of aliphatic carboxylic acid consumed during the formation of the aryl aliphatic ketone and the dialiphatic ketone in step c); e) optionally repeating step d).
A crossmember of the body of a motor vehicle, intended to interconnect the two upper parts of the passenger compartment sides in a zone situated above the windscreen aperture, this cross-member including an upper body shell made of sheet metal welded to a lower body shell made of sheet metal, defining between them an elongate hollow body, the cross-section of which changes progressively between each of its two ends (1c, 1d) that are intended to be connected to an upper portion of a passenger compartment side and the midpoint of the hollow body, characterized in that the cross-section of the hollow body changes progressively between each of said ends (1c, 1d) and said midpoint so as to increase progressively the stiffness of the crossmember between each of said ends (1c, 1d) and said midpoint permitting a progressive deformation of the crossmember in the event of an impact exerted on the upper body shell of the crossmember between said end (1c, 1d) and the midpoint of the crossmember.