mhurhangee/ep-ind-claims huggingface dataset:
An immunogenic composition comprising N. meningitidis capsular polysaccharides from serogroups A, C, W135 and Y, wherein each N. meningitidis capsular polysaccharide is conjugated to a Tetanus Toxoid carrier protein to produce a N. meningitidis capsular polysaccharide conjugate, wherein: - the MenA capsular polysaccharide present in the MenA capsular saccharide conjugate has an average size over 60 kDa and is native or microfluidised MenA capsular polysaccharide; - the MenC capsular polysaccharide present in the MenC capsular polysaccharide conjugate has an average size over 150 kDa and is a native MenC capsular polysaccharide; - the MenW capsular polysaccharide present in the MenW capsular polysaccharide conjugate is a MenW capsular polysaccharide sized by microfluidization and has an average size of 100-200 kDa, and - the MenY capsular polysaccharide present in the MenY capsular polysaccharide conjugate is a MenY capsular polysaccharide sized by microfluidization and has an average size of 100-200 kDa. - the MenA capsular polysaccharide present in the MenA capsular saccharide conjugate has an average size over 60 kDa and is native or microfluidised MenA capsular polysaccharide; - the MenC capsular polysaccharide present in the MenC capsular polysaccharide conjugate has an average size over 150 kDa and is a native MenC capsular polysaccharide; - the MenW capsular polysaccharide present in the MenW capsular polysaccharide conjugate is a MenW capsular polysaccharide sized by microfluidization and has an average size of 100-200 kDa, and - the MenY capsular polysaccharide present in the MenY capsular polysaccharide conjugate is a MenY capsular polysaccharide sized by microfluidization and has an average size of 100-200 kDa.
A flavouring insert within a package of smoking articles or a package of tobacco, comprising a substrate bearing a flavouring agent, wherein the substrate comprises a sheet of material or a cylindrical rod, wherein the substrate further comprises cellulose acetate, wherein the flavouring agent comprises menthol or clove, and wherein the menthol or clove is present in an amount from 50 to 500 mg per cm 3 volume of the substrate.
A feeder device configured for mounting on a shelf for feeding successive products to a front of the shelf, the device comprising: an elongated guide member which is configured for extending longitudinally backwards from the front of the shelf when the device is mounted; a sled slidably arranged at the guide member such that the sled can slide along the length of the elongated guide member, configured for engaging a backmost product of the successive products for pushing the products towards the front of the shelf; means for urging the sled along the guide member towards a front end of said guide member; and indication means arranged to indicate that the sled has reached a certain position along the guide member; characterised in that the indication means comprises a transmission member which is longitudinally, limitedly displaceable relative to the guide member; and a magnet which is arranged to connect and to disconnect the transmission member with and from the sled. an elongated guide member which is configured for extending longitudinally backwards from the front of the shelf when the device is mounted; a sled slidably arranged at the guide member such that the sled can slide along the length of the elongated guide member, configured for engaging a backmost product of the successive products for pushing the products towards the front of the shelf; means for urging the sled along the guide member towards a front end of said guide member; and indication means arranged to indicate that the sled has reached a certain position along the guide member; characterised in that the indication means comprises a transmission member which is longitudinally, limitedly displaceable relative to the guide member; and a magnet which is arranged to connect and to disconnect the transmission member with and from the sled.
A system, comprising: a plurality of storage nodes, comprising a processor and a memory, that store respective versions of a hierarchical data structure consistent with a transaction log for the hierarchical data structure; a transaction log store, that maintains a transaction log for the hierarchical data structure; individual ones of the storage nodes, configured to: receive a read request for specified data stored as part of the hierarchical data structure from a client, wherein the read request specifies one of a plurality of isolation levels or consistency levels; identify one of the respective versions of the hierarchical data structure maintained at the storage node for service of the read request according to the specified isolation level or consistency level in the read request; access one or more locations at the storage node that store the specified data included in the identified version to obtain the specified data; and return the specified data included in the identified version to the client. a plurality of storage nodes, comprising a processor and a memory, that store respective versions of a hierarchical data structure consistent with a transaction log for the hierarchical data structure; a transaction log store, that maintains a transaction log for the hierarchical data structure; individual ones of the storage nodes, configured to: receive a read request for specified data stored as part of the hierarchical data structure from a client, wherein the read request specifies one of a plurality of isolation levels or consistency levels; identify one of the respective versions of the hierarchical data structure maintained at the storage node for service of the read request according to the specified isolation level or consistency level in the read request; access one or more locations at the storage node that store the specified data included in the identified version to obtain the specified data; and return the specified data included in the identified version to the client. receive a read request for specified data stored as part of the hierarchical data structure from a client, wherein the read request specifies one of a plurality of isolation levels or consistency levels; identify one of the respective versions of the hierarchical data structure maintained at the storage node for service of the read request according to the specified isolation level or consistency level in the read request; access one or more locations at the storage node that store the specified data included in the identified version to obtain the specified data; and return the specified data included in the identified version to the client.
Method for processing plastic preforms and/or plastic containers with at least one first processing device, which processes the plastic containers (10, 20) in a first predetermined manner, and with at least one second processing device, which processes the plastic containers (10, 20) in a second predetermined manner and which is connected upstream or downstream of the first processing device, wherein the plastic containers (10, 20) are transported by means of a transport device from one processing device (2, 4) to the other processing device (2, 4) and the at least first processing device and the at least second processing device are coupled to one another, wherein the first processing device is a blow moulding machine for transforming plastic preforms into plastic containers and the process speed of the blow moulding machine is specified by a formula which contains several process parameters which are characteristic for the transforming process, characterised in that by means of at least two key formulas the process parameters associated with at least one further process speed are determined at least partially, so that an adjustment of the process speed of the blow moulding machine to a speed of at least one further processing device (2, 4) is enabled and/or a setting of the speed is possible.
Treatment system for internal walls of aquatic tanks, said system comprising at least one dynamic suction head and a mobility assembly for moving the dynamic suction head along a wall being treated, the dynamic suction head comprising a rotary disk disposed to rotate and connected to a rotation shaft able to be driven by a disk motor, the rotary disk bearing a wall interface layer, in which the wall interface layer comprises a plurality of radial grooves disposed in the portion of the disk located on the side of the wall being treated and connecting the center of rotation of the disk to the edge of the disk and at least one orifice (16, 17) providing, when functioning in an aquatic tank in the immediate proximity of a wall being treated, a flow of water between the rear of the disk and the front of the disk, passing through the disk and thence being conveyed by the radial grooves of the work disk to be discharge laterally then ejected into the water of the tank, creating suction resulting in the suction head being flattened against the wall being treated.
Welding torch comprising a main body and an end portion suited to be fed through said main body with a welding wire and a welding area protection gas, said end portion comprising: - a welding unit (7; 7, 8) suited to be powered and provided with an inner channel for the passage of said welding wire; - a conveyor element associated with said welding unit, said conveyor element being provided with an outlet mouth suited to allow said welding wire to move out of said welding unit and suited to allow said protection gas to be conveyed outside of said welding unit; - electrical insulation means interposed between said welding unit and said conveyor element, said electrical insulation means comprising at least one insulating portion made of an electrically non-conductive material, - at least one conveyor channel suited to convey said protection gas from said main body to said outlet mouth of said conveyor element, wherein said at least one conveyor channel is at least partially delimited by said insulating portion, characterized in that said electrical insulation means furthermore comprise an inner interface element associated with the inside of said insulating portion, said inner interface element being interposed between said insulating portion and said welding unit and said at least one conveyor channel being delimited at least partially by said insulating portion and at least partially by said inner interface element, in that said insulating portion and said inner interface element are in a tubular shape with longitudinal development, said inner interface element delimiting an inner area suited to accommodate at least part of said welding unit, wherein said inner interface element comprises at least one groove made on its external surface directed towards said insulating portion to define said at least one conveyor channel, and in that said inner interface element furthermore comprises at least one channel that places said at least one groove in communication with said inner area delimited by said inner interface element. - a welding unit (7; 7, 8) suited to be powered and provided with an inner channel for the passage of said welding wire; - a conveyor element associated with said welding unit, said conveyor element being provided with an outlet mouth suited to allow said welding wire to move out of said welding unit and suited to allow said protection gas to be conveyed outside of said welding unit; - electrical insulation means interposed between said welding unit and said conveyor element, said electrical insulation means comprising at least one insulating portion made of an electrically non-conductive material, - at least one conveyor channel suited to convey said protection gas from said main body to said outlet mouth of said conveyor element, wherein said at least one conveyor channel is at least partially delimited by said insulating portion,
A weapon comprising - an explosive charge, - an activatable detonation ignition means, in particular an activatable detonation ignition chain (103, 105, 107), and - an ignition device, wherein the ignition device is configured to activate the detonation ignition means upon receipt of a detonation activation command, and wherein the activated detonation ignition means is configured to cause the explosive charge to detonate, wherein the weapon comprises an activatable deflagration ignition means, in particular an activatable deflagration ignition chain (117, 121), wherein the ignition device is configured to activate, selectively, the detonation ignition means or the deflagration ignition means, and wherein the activated deflagration ignition means is configured to cause the explosive charge to deflagrate characterized in that the weapon comprises - at least one electronic device and - a guidance device, wherein the guidance device is configured to guide combustion gases and/or flames which occur during the deflagration of the explosive charge in the direction of the, or at least one, electronic device of the weapon. - an explosive charge, - an activatable detonation ignition means, in particular an activatable detonation ignition chain (103, 105, 107), and - an ignition device, wherein the ignition device is configured to activate the detonation ignition means upon receipt of a detonation activation command, and wherein the activated detonation ignition means is configured to cause the explosive charge to detonate, wherein the weapon comprises an activatable deflagration ignition means, in particular an activatable deflagration ignition chain (117, 121), wherein the ignition device is configured to activate, selectively, the detonation ignition means or the deflagration ignition means, and wherein the activated deflagration ignition means is configured to cause the explosive charge to deflagrate characterized in that the weapon comprises - at least one electronic device and - a guidance device, - at least one electronic device and - a guidance device, wherein the guidance device is configured to guide combustion gases and/or flames which occur during the deflagration of the explosive charge in the direction of the, or at least one, electronic device of the weapon.
A cover for an electronic device comprising: a connector housing, the connector housing defining a cavity configured to receive a connector plug therein; a plurality of connector springs configured to contact the connector plug when the connector plug occupies the cavity; a connector plate comprising at least one connector plate contact surface, wherein the connector plate contact surface is configured to communicate electrically with at least one connector spring; wherein the connector housing includes a plurality of connector spring slots configured to receive the plurality of connector springs therein, the connector spring slots having a depth defined by the connector housing which is greater than a height of the connector springs so as to protect the plurality of connector springs by preventing the exposure of the connector springs when the cover is removed from the electronic device; and wherein the connector housing is integrally moulded to the cover. a connector housing, the connector housing defining a cavity configured to receive a connector plug therein; a plurality of connector springs configured to contact the connector plug when the connector plug occupies the cavity; a connector plate comprising at least one connector plate contact surface, wherein the connector plate contact surface is configured to communicate electrically with at least one connector spring; wherein the connector housing includes a plurality of connector spring slots configured to receive the plurality of connector springs therein, the connector spring slots having a depth defined by the connector housing which is greater than a height of the connector springs so as to protect the plurality of connector springs by preventing the exposure of the connector springs when the cover is removed from the electronic device; and wherein the connector housing is integrally moulded to the cover.
A process for the preparation of a particle, wherein the particle comprises: (a) a core comprising a hydrophobic benefit agent; (b) an outer crosslinked shell, which comprises a crosslinked, hydrophobically modified polyvinyl alcohol, which comprises a crosslinking agent comprising a first dextran aldehyde having a molecular weight of from 2,000 to 2,000,000 Da; and (c) an inner polyamide shell, wherein the shell comprises a polyamide, and wherein the polyamide comprises an aromatic group; wherein the outer crosslinked shell is formed prior to the formation of the inner polyamide shell. (a) a core comprising a hydrophobic benefit agent; (b) an outer crosslinked shell, which comprises a crosslinked, hydrophobically modified polyvinyl alcohol, which comprises a crosslinking agent comprising a first dextran aldehyde having a molecular weight of from 2,000 to 2,000,000 Da; and (c) an inner polyamide shell, wherein the shell comprises a polyamide, and wherein the polyamide comprises an aromatic group;
A method for anonymously communicating data that defines a token from a source system to a destination system via a block-chain distributed database, the method comprising: receiving, at a token distribution system, request information from a source system, wherein the request information specifies source identifying information and an address for receiving one or more tokens; determining, by the token distribution system, whether a user associated with the request is registered with the token distribution system and, if so, a number of tokens to allocate to the user; if the user is determined to be registered with the token distribution system, determining, by the token distribution system, one or more tokens for allocation to the source system based in part on the number of tokens to allocate to the user; communicating, by the token distribution system via the block-chain distributed database, the allocated one or more tokens to the address defined in the request information via a zero-knowledge transaction; moving, by the source system, the one or more tokens to a different address, the different address corresponding to an address for communicating a block-chain transaction; communicating, by the source system, the tokens at the different address to a destination address associated with the destination system via a block-chain transaction; communicating, by the destination system, received tokens to a token aggregation system via a block-chain transaction, wherein the token aggregation system receives tokens from a plurality of different destination systems; and generating a report that indicates a number of tokens received by each destination system. receiving, at a token distribution system, request information from a source system, wherein the request information specifies source identifying information and an address for receiving one or more tokens; determining, by the token distribution system, whether a user associated with the request is registered with the token distribution system and, if so, a number of tokens to allocate to the user; if the user is determined to be registered with the token distribution system, determining, by the token distribution system, one or more tokens for allocation to the source system based in part on the number of tokens to allocate to the user; communicating, by the token distribution system via the block-chain distributed database, the allocated one or more tokens to the address defined in the request information via a zero-knowledge transaction; moving, by the source system, the one or more tokens to a different address, the different address corresponding to an address for communicating a block-chain transaction; communicating, by the source system, the tokens at the different address to a destination address associated with the destination system via a block-chain transaction; communicating, by the destination system, received tokens to a token aggregation system via a block-chain transaction, wherein the token aggregation system receives tokens from a plurality of different destination systems; and generating a report that indicates a number of tokens received by each destination system.
A fire notification system in which a fire detector, which senses a plurality of fire elements including a heat temperature, a smoke concentration, and a gas concentration due to fire, is connected to a fire receiver via a transmission path, wherein the fire receiver includes a reception control unit configured to set the fire detector to a detector test mode when a test operation is performed, the test operation comprising sequentially conducting different types of alarm tests corresponding respectively to the fire elements sensed by the fire detector, characterized in that the fire detector includes: an alarm indicating light, and a detector control unit which performs display control over the alarm indicating light to vary display of the alarm indicating light in accordance with a defined display mode to indicate which one of the different types of alarm tests is being conducted when a test jig is used to conduct alarm tests by sensing corresponding fire elements in a state where the test mode is set by the fire receiver. the fire receiver includes a reception control unit configured to set the fire detector to a detector test mode when a test operation is performed, the test operation comprising sequentially conducting different types of alarm tests corresponding respectively to the fire elements sensed by the fire detector, characterized in that the fire detector includes: an alarm indicating light, and a detector control unit which performs display control over the alarm indicating light to vary display of the alarm indicating light in accordance with a defined display mode to indicate which one of the different types of alarm tests is being conducted when a test jig is used to conduct alarm tests by sensing corresponding fire elements in a state where the test mode is set by the fire receiver. an alarm indicating light, and a detector control unit which performs display control over the alarm indicating light to vary display of the alarm indicating light in accordance with a defined display mode to indicate which one of the different types of alarm tests is being conducted when a test jig is used to conduct alarm tests by sensing corresponding fire elements in a state where the test mode is set by the fire receiver.
An apparatus comprising: a chamber; a first heat exchanger including a cold finger, wherein the cold finger is positioned within the chamber; a second heat exchanger within the chamber, wherein the second heat exchanger is a counter flow heat exchanger operable to precool refrigerant entering a Joule-Thomson valve; and an adapter positioned between the cold finger and the second heat exchanger, the adapter operable to transfer heat from a thermal load to both the cold finger and the refrigerant emitted from the Joule-Thomson valve, wherein the second heat exchanger is positioned around the adapter. a chamber; a first heat exchanger including a cold finger, wherein the cold finger is positioned within the chamber; a second heat exchanger within the chamber, wherein the second heat exchanger is a counter flow heat exchanger operable to precool refrigerant entering a Joule-Thomson valve; and an adapter positioned between the cold finger and the second heat exchanger, the adapter operable to transfer heat from a thermal load to both the cold finger and the refrigerant emitted from the Joule-Thomson valve, wherein the second heat exchanger is positioned around the adapter.