mhurhangee/ep-ind-claims huggingface dataset:
A server system for processing a virtual space, the virtual space comprising a plurality of entities (A-E), the server system comprising: a plurality of back-end servers; and one or more front-end servers; wherein each of the plurality of back-end servers is configured to store a respective subset of the plurality of entities (A-E); each front-end server is configured to be communicatively coupled to each of the plurality of back-end servers; each front-end server is configured to be communicatively coupled to one or more client devices; each front-end server is configured to store one or more entity references (RefA-RefE); each entity reference (RefA-RefE) comprises a first identifier for identifying a respective entity and a second identifier for identifying the back-end server on which the entity identified by the first identifier is stored; the virtual space comprises a plurality of tiles; each tile is representative of a region in the virtual space; each entity (A-E) is located within one or more of the tiles; each of the plurality of back-end servers is configure to store a respective subset of the plurality of tiles; each of the plurality of back-end servers is configured to store only some of the entities (A-E) located in the tiles stored by that back-end server; and in respect of at least one of the tiles, the plurality of back-end servers are configured to store that tile, and each of said plurality of back-end servers are configured to store only a proper subset of the entities (A-E) located in that tile such that together they store the complete set of entities (A-E) located on that tile. a plurality of back-end servers; and one or more front-end servers; wherein each of the plurality of back-end servers is configured to store a respective subset of the plurality of entities (A-E); each front-end server is configured to be communicatively coupled to each of the plurality of back-end servers; each front-end server is configured to be communicatively coupled to one or more client devices; each front-end server is configured to store one or more entity references (RefA-RefE); each entity reference (RefA-RefE) comprises a first identifier for identifying a respective entity and a second identifier for identifying the back-end server on which the entity identified by the first identifier is stored; the virtual space comprises a plurality of tiles; each tile is representative of a region in the virtual space; each entity (A-E) is located within one or more of the tiles; each of the plurality of back-end servers is configure to store a respective subset of the plurality of tiles; each of the plurality of back-end servers is configured to store only some of the entities (A-E) located in the tiles stored by that back-end server; and in respect of at least one of the tiles, the plurality of back-end servers are configured to store that tile, and each of said plurality of back-end servers are configured to store only a proper subset of the entities (A-E) located in that tile such that together they store the complete set of entities (A-E) located on that tile.
An immunotherapeutic composition comprising,: a) a whole heat-inactivated yeast; b) at least one modified Brachyury antigen expressed by the yeast, wherein the modified Brachyury antigen has an amino acid sequence that is at least 90% or 95% identical to SEQ ID NO:10 or SEQ ID NO:13; wherein DNA binding activity of the Brachyury antigen is abolished by at least one modification selected from a deletion or substitution of an amino acid at any one or more of positions 198 to 222 of a wild-type Brachyury (SEQ ID NO:2 or SEQ ID NO:4); wherein the yeast expressing the modified antigen do not exhibit the flocculation phenotype; and wherein the composition elicits a Brachyury-specific T cell response. a) a whole heat-inactivated yeast; b) at least one modified Brachyury antigen expressed by the yeast, wherein the modified Brachyury antigen has an amino acid sequence that is at least 90% or 95% identical to SEQ ID NO:10 or SEQ ID NO:13;
Drain valve for a sanitary cistern, in particular a cistern for a toilet, comprising a valve socket, a valve body, which comprises a seal and is movably guided in the valve socket, and a valve seat which delimits a drainage opening (3.2), the seal resting on the valve seat when the drain valve is in the closed state and opening the drainage opening (3.2) when the drain valve is in the open state, the valve socket being connected to the valve seat by means of at least one vertical spacer (6, 7) which defines at least one inflow area upstream of the valve seat in the flush flow direction, and a flush flow restrictor is adjustably mounted on the at least one spacer (6, 7), characterised in that it being possible to modify in stages the effective size of the inflow area by rotating and displacing the flush flow restrictor relative to the spacer (6, 7), the spacer comprises at least one first latch element, the flush flow restrictor comprising at least one second latch element (11.2) which interacts with the at least one first latch element, and the flush flow restrictor comprises on the outer surface thereof at least one outwardly protruding projection.
An electronic cigarette, characterized by comprising: a main body comprising an accommodating slot and a magnetic valve, wherein the magnetic valve movably protrudes from a bottom surface of the accommodating slot; and a cigarette cartridge comprising a joint surface and a magnetic body disposed on the joint surface, wherein the cigarette cartridge is configured to be disposed in the accommodating slot, the magnetic body attracts the magnetic valve to move and protrude from the bottom surface of the accommodating slot, so that the magnetic body is connected to the magnetic valve, and an interval is formed between the cigarette cartridge and the main body; characterized in that the main body further comprises a limiting receiving groove, the magnetic valve is movably accommodated in the limiting receiving groove, the limiting receiving groove comprises a lower portion and an upper portion, the upper portion is in spatial communication with the lower portion, a width of the upper portion is smaller than a width of the lower portion, the magnetic valve further comprises a limiting portion, the limiting portion is movably disposed in the lower portion, and a width of the limiting portion is greater than the width of the upper portion. a main body comprising an accommodating slot and a magnetic valve, wherein the magnetic valve movably protrudes from a bottom surface of the accommodating slot; and a cigarette cartridge comprising a joint surface and a magnetic body disposed on the joint surface, wherein the cigarette cartridge is configured to be disposed in the accommodating slot, the magnetic body attracts the magnetic valve to move and protrude from the bottom surface of the accommodating slot, so that the magnetic body is connected to the magnetic valve, and an interval is formed between the cigarette cartridge and the main body; characterized in that the main body further comprises a limiting receiving groove, the magnetic valve is movably accommodated in the limiting receiving groove, the limiting receiving groove comprises a lower portion and an upper portion, the upper portion is in spatial communication with the lower portion, a width of the upper portion is smaller than a width of the lower portion, the magnetic valve further comprises a limiting portion, the limiting portion is movably disposed in the lower portion, and a width of the limiting portion is greater than the width of the upper portion.
Canister for storage and transport of flowable material with - a bottom, - an upper side and - at least one side wall (17a, 17b, 19a, 19b) connecting the bottom and the upper side and defining the circumference of the canister, - a separate pouring aid as well as - a groove provided accessible from outside for holding the separate pouring aid, the shape of which is at least in sections adapted to the pouring aid, characterized in that the groove is placed at the bottom of the canister transversely to a handgrip that is provided on the upper side of the canister, whereby the groove is configured as a handle for the additional holding of the canister. - a bottom, - an upper side and - at least one side wall (17a, 17b, 19a, 19b) connecting the bottom and the upper side and defining the circumference of the canister, - a separate pouring aid as well as - a groove provided accessible from outside for holding the separate pouring aid, the shape of which is at least in sections adapted to the pouring aid,
A vinylidene fluoride resin fiber comprising a plurality of vinylidene fluoride resin filaments, wherein the fiber has a degree of crystal orientation of not less than 80% and a crystal size of not greater than 12 nm as determined on the basis of X-ray diffraction from an azimuth angle intensity distribution curve of 2θ = 20.8 ± 1° as described in the description, the vinylidene fluoride resin has two or more melting peaks within a range of 150°C to 180°C, determined as described in the description, and an average birefringence, determined as described in the description, is not less than 30 × 10 -3. the fiber has a degree of crystal orientation of not less than 80% and a crystal size of not greater than 12 nm as determined on the basis of X-ray diffraction from an azimuth angle intensity distribution curve of 2θ = 20.8 ± 1° as described in the description, the vinylidene fluoride resin has two or more melting peaks within a range of 150°C to 180°C, determined as described in the description, and an average birefringence, determined as described in the description, is not less than 30 × 10 -3.
Artificial neuron organ comprising: - at least one artificial neuron having at least one output port and at least one input port, and - at least one current conveyor having two input ports X and Y and one output port Z; said organ being characterised in that it also comprises at least one memristor having two terminals, and wherein: - said memristor is connected by one of its terminals to the input port X of said current conveyor; - said current conveyor is connected by its output port Z to an input port of said artificial neuron; - said artificial neuron is connected by one of its output ports to the input port Y of said current conveyor or to another of said terminals of said memristor. - at least one artificial neuron having at least one output port and at least one input port, and - at least one current conveyor having two input ports X and Y and one output port Z; - said memristor is connected by one of its terminals to the input port X of said current conveyor; - said current conveyor is connected by its output port Z to an input port of said artificial neuron; - said artificial neuron is connected by one of its output ports to the input port Y of said current conveyor or to another of said terminals of said memristor.
Method for compensating for a discrepancy of an operating point of a manipulator during the machining of a workpiece by an end effector on the manipulator, wherein an instruction sequence for controlling the manipulator for the purpose of machining the workpiece is executed and an item of target position information corresponding to a target position is generated on the basis of the instruction sequence, on the basis of which target position information the operating point of the manipulator is adjusted, wherein the target position information is processed using a compensation parameter set based on the target position information in order to determine a compensation value, and the target position information is adapted according to the compensation value in order to compensate for a discrepancy between an actual position of the operating point and the target position, characterized in that the actual position is measured during the machining of the workpiece, in that a correction value is determined on the basis of a comparison between the measured actual position and the target position, and in that the compensation parameter set is adapted on the basis of the correction value during the machining of the workpiece in order to reduce the discrepancy.
A connecting element with a housing having a first receiving space with a first joining element and a first shiftable valve element arranged therein, and having a second receiving space, the first and the second receiving space are fluidically connected to each other, wherein the first valve element is of elastically deformable design and is shiftable, wherein the first valve element is shiftable between two positions, wherein, in the first position, a fluidic connection between the first receiving space and the first joining element is interrupted by the first valve element and, in the second position, a fluidic connection between the first receiving space and the first joining element is opened by the first valve element, wherein the first valve element is formed with a duct which is closed in the first position of the first valve element and is opened in the second position of the first valve element, wherein a hollow pin is arranged in the first receiving space and engages in the duct, wherein the first joining element (108, 308) has a hollow-cylindrical element and the first valve element has at least one cylindrical region which is accommodated in a shiftable manner in the hollow-cylindrical element, characterised in that the first valve element has spring arms protruding at the cylindrical region.
A method for securing a first directed acyclic graph, comprising: receiving a request to create a first node in the first directed acyclic graph, wherein the request specifies a path for the first node; creating a first unique cryptographically secure key for the first node; creating the first node in the first directed acyclic graph; encrypting contents of the first node in the first directed acyclic graph with the created first unique cryptographically secure key for the first node; determining a parent node of the created first node in the first directed acyclic graph based on the specified path; creating an edge in the first directed acyclic graph from the parent node to the created first node; traversing a path from a root node of the first directed acyclic graph to the parent node to determine a second unique cryptographically secure key that has been created for the parent node; encrypting the first unique cryptographically secure key with the second unique cryptographically secure key; and storing a result of the encrypting the first unique cryptographically secure key with the second unique cryptographically secure key on the created edge from the parent node to the created first node, wherein the first unique cryptographically secure key for the created first node is not stored on the created first node itself. receiving a request to create a first node in the first directed acyclic graph, wherein the request specifies a path for the first node; creating a first unique cryptographically secure key for the first node; creating the first node in the first directed acyclic graph; encrypting contents of the first node in the first directed acyclic graph with the created first unique cryptographically secure key for the first node; determining a parent node of the created first node in the first directed acyclic graph based on the specified path; creating an edge in the first directed acyclic graph from the parent node to the created first node; traversing a path from a root node of the first directed acyclic graph to the parent node to determine a second unique cryptographically secure key that has been created for the parent node; encrypting the first unique cryptographically secure key with the second unique cryptographically secure key; and storing a result of the encrypting the first unique cryptographically secure key with the second unique cryptographically secure key on the created edge from the parent node to the created first node, wherein the first unique cryptographically secure key for the created first node is not stored on the created first node itself.
Method for treatment of a substrate surface using an atmospheric pressure plasma, the method comprising: providing an atmospheric pressure plasma in a treatment space between a first electrode and a second electrode, characterized in that the method further comprises: providing a magnetic layer on top of the first electrode providing a substrate in contact with the magnetic layer and an electrically conductive mask web in contact with the substrate, and applying a plasma generating power to the first and second electrode (2, 3) for treatment of surface areas of the substrate exposed by the mask web, in which the substrate and mask web are moved synchronously through the treatment space. providing an atmospheric pressure plasma in a treatment space between a first electrode and a second electrode, providing a magnetic layer on top of the first electrode providing a substrate in contact with the magnetic layer and an electrically conductive mask web in contact with the substrate, and applying a plasma generating power to the first and second electrode (2, 3) for treatment of surface areas of the substrate exposed by the mask web, in which the substrate and mask web are moved synchronously through the treatment space.
An apparatus for operation in unlicensed spectrum, comprising: processor circuitry configured to determine multiple physical resource blocks, PRBs, to be used for transmitting over an initial physical uplink control channel, PUCCH, before a dedicated PUCCH resource is configured, wherein a number of the multiple PRBs, n, is determined based at least on an Occupied Channel Bandwidth, OCB, criteria for the initial PUCCH and a sub-carrier spacing, SCS, wherein the number of the multiple PRBs, n, fn} meets one of the following equations: if the n PRBs are allocated contiguously n ≥ ⌈ OCB / 12 ∗ SCS ⌉ or if the n PRBs are allocated non-contiguously ⌈ n − 1 ∗ m + 1 ⌉ ∗ ( 12 ∗ SCS) ≥ OCB, wherein m is an inter-PRB distance between two consecutive PRBs; and radio front end circuitry, coupled with the processor circuitry, and configured to transmit over the initial PUCCH using the determined PRBs and before the dedicated PUCCH resource is configured, wherein the dedicated PUCCH resource configuration is associated with a Radio Resource Control, RRC, connection setup. processor circuitry configured to determine multiple physical resource blocks, PRBs, to be used for transmitting over an initial physical uplink control channel, PUCCH, before a dedicated PUCCH resource is configured, wherein a number of the multiple PRBs, n, is determined based at least on an Occupied Channel Bandwidth, OCB, criteria for the initial PUCCH and a sub-carrier spacing, SCS, wherein the number of the multiple PRBs, n, fn} meets one of the following equations: if the n PRBs are allocated contiguously n ≥ ⌈ OCB / 12 ∗ SCS ⌉ or if the n PRBs are allocated non-contiguously ⌈ n − 1 ∗ m + 1 ⌉ ∗ ( 12 ∗ SCS) ≥ OCB, wherein m is an inter-PRB distance between two consecutive PRBs; and radio front end circuitry, coupled with the processor circuitry, and configured to transmit over the initial PUCCH using the determined PRBs and before the dedicated PUCCH resource is configured, wherein the dedicated PUCCH resource configuration is associated with a Radio Resource Control, RRC, connection setup. if the n PRBs are allocated contiguously n ≥ ⌈ OCB / 12 ∗ SCS ⌉ or if the n PRBs are allocated non-contiguously ⌈ n − 1 ∗ m + 1 ⌉ ∗ ( 12 ∗ SCS) ≥ OCB, wherein m is an inter-PRB distance between two consecutive PRBs; and radio front end circuitry, coupled with the processor circuitry, and configured to transmit over the initial PUCCH using the determined PRBs and before the dedicated PUCCH resource is configured, wherein the dedicated PUCCH resource configuration is associated with a Radio Resource Control, RRC, connection setup.
Method for operating a nuclear magnetic flowmeter for determining the flow of a medium, which has low or no salinity, with slug flow flowing through a measuring tube, having a measuring device, wherein the measuring device contains an RF circuit having external electronics and having at least one RF coil designed for generating an excitation signal for exciting the medium and/or for detecting measuring signals emitted by the medium, wherein a slug zone of the slug flow is characterized by a surge of liquid medium and the liquid medium fills the entire cross section of the measuring tube and a film zone of the slug flow consists of a large gas bubble taking up a dominating portion of the cross section of the measuring tube and a liquid film filling the remaining cross section of the measuring tube, wherein the "tuning" parameters and "matching" parameters are set for a slug zone or for a film zone, wherein the frequency of the RF circuit can be set with "tuning" so that resonance is achieved and the impedance of the RF coil can be adapted to that of the external electronics by "matching", wherein a nuclear magnetic measurement is carried out, wherein, using measured signal amplitudes, it is determined whether a slug zone or a film zone is present in the RF coil and wherein the water-liquid ratio and/or the gas volume portion in the slug zone and the film zone are determined using the signal amplitudes.
Apparatus for dispensing a mixture which can be produced in the apparatus by mixing at least two substances (2, 3), comprising a) a housing, b) a reservoir (4, 5) which is accommodated in the housing and is intended for receiving one of the at least two substances (2, 3) to be mixed, respectively, c) a mixing chamber in which the at least two substances (2, 3) can be mixed to form the mixture, d) a dispensing device for the mixture, which is arranged on the mixing chamber, e) it being possible to transfer the substances (2, 3) received in the reservoirs (4, 5) into the mixing chamber and dispense said substances from the dispensing opening by means of an emptying device associated with an actuating device, characterised in that, when transferring from a starting position to an end position, the actuating device actuates a mixing element which is arranged in the mixing chamber and by means of which the substances can be mixed in the mixing chamber. a) a housing, b) a reservoir (4, 5) which is accommodated in the housing and is intended for receiving one of the at least two substances (2, 3) to be mixed, respectively, c) a mixing chamber in which the at least two substances (2, 3) can be mixed to form the mixture, d) a dispensing device for the mixture, which is arranged on the mixing chamber, e) it being possible to transfer the substances (2, 3) received in the reservoirs (4, 5) into the mixing chamber and dispense said substances from the dispensing opening by means of an emptying device associated with an actuating device,
A device for producing an edgefold on a component, which includes a support and a cover layer, comprising an elastic body, which is set up to pull the cover layer over an edge of the support by deforming the elastic body; wherein the elastic body is clamped between two pressure plates (22, 24) and is deformable by means of a relative movement of the two pressure plates (22, 24), wherein material of the elastic body is pressed outwards and forms a material bulge beyond the periphery of the pressure plates (22, 24) when the pressure plates (22, 24) are moved towards one another. an elastic body, which is set up to pull the cover layer over an edge of the support by deforming the elastic body; wherein the elastic body is clamped between two pressure plates (22, 24) and is deformable by means of a relative movement of the two pressure plates (22, 24), wherein material of the elastic body is pressed outwards and forms a material bulge beyond the periphery of the pressure plates (22, 24) when the pressure plates (22, 24) are moved towards one another.