mhurhangee/ep-ind-claims huggingface dataset:
A process for the dual use of packaging for a fish-related product, namely fish food, water treatment chemicals or a fish-related consumable product normally dispensed into an aquarium, comprising the steps of: providing a dual use package including a housing having a three-dimensional shape, an internal compartment within the housing for containing the fish-related product therein, a primary opening with an associated cap for accessing the internal compartment, and a secondary opening with an associated plug for selectively opening or closing the secondary opening; dispensing the fish-related product from the internal compartment through the primary opening into the aquarium while the package is outside the aquarium; and after the fish-related product has been completely dispended from the internal compartment, performing at least one of the following steps a) to c): a) adding ballast to the internal compartment, b) attaching an anchor to the dual use package and securing the anchor within the aquarium, or c) causing the dual use package to be buoyant in the water, attaching an anchor to the dual use package by a length of fine cord, and securing the anchor within the aquarium, followed by finally submerging the dual use package in water within the aquarium; and utilizing the dual use package as a decorative ornament in the aquarium after it has been submerged in the aquarium below the water surface. providing a dual use package including a housing having a three-dimensional shape, an internal compartment within the housing for containing the fish-related product therein, a primary opening with an associated cap for accessing the internal compartment, and a secondary opening with an associated plug for selectively opening or closing the secondary opening; dispensing the fish-related product from the internal compartment through the primary opening into the aquarium while the package is outside the aquarium; and after the fish-related product has been completely dispended from the internal compartment, performing at least one of the following steps a) to c): a) adding ballast to the internal compartment, b) attaching an anchor to the dual use package and securing the anchor within the aquarium, or c) causing the dual use package to be buoyant in the water, attaching an anchor to the dual use package by a length of fine cord, and securing the anchor within the aquarium, followed by finally submerging the dual use package in water within the aquarium; and utilizing the dual use package as a decorative ornament in the aquarium after it has been submerged in the aquarium below the water surface. a) adding ballast to the internal compartment, b) attaching an anchor to the dual use package and securing the anchor within the aquarium, or c) causing the dual use package to be buoyant in the water, attaching an anchor to the dual use package by a length of fine cord, and securing the anchor within the aquarium, followed by finally submerging the dual use package in water within the aquarium; and utilizing the dual use package as a decorative ornament in the aquarium after it has been submerged in the aquarium below the water surface.
A digital radio frequency receiver for receiving and deciphering broadcast radio frequency signals containing secure information, said receiver comprising: a data decryption circuit comprising memory for storing a plurality of separately selectable decryption keys which are based on defined group criteria and are selectable based on characteristics of the receiver environment, each of the stored decryption keys corresponding to a different one of the receiver environment characteristics and having a value based on one of the receiver environmental characteristics as determined by the environment of the receiver; an input for receiving a radio frequency signal comprising a data stream comprising an encrypted message and a plurality of key selectors (52A-52M), wherein each of the key selectors identifies a predetermined one of the plurality of receiver environmental characteristics, and indicates the use or non-use of the corresponding stored key for decrypting the message; and the data decryption circuit further comprises a processor configured to select the stored decryption keys corresponding to the receiver environmental characteristics identified by the key selectors (52A-52M) included in the received radio frequency signal and use the selected decryption keys in decrypting the encrypted message. a data decryption circuit comprising memory for storing a plurality of separately selectable decryption keys which are based on defined group criteria and are selectable based on characteristics of the receiver environment, each of the stored decryption keys corresponding to a different one of the receiver environment characteristics and having a value based on one of the receiver environmental characteristics as determined by the environment of the receiver; an input for receiving a radio frequency signal comprising a data stream comprising an encrypted message and a plurality of key selectors (52A-52M), wherein each of the key selectors identifies a predetermined one of the plurality of receiver environmental characteristics, and indicates the use or non-use of the corresponding stored key for decrypting the message; and the data decryption circuit further comprises a processor configured to select the stored decryption keys corresponding to the receiver environmental characteristics identified by the key selectors (52A-52M) included in the received radio frequency signal and use the selected decryption keys in decrypting the encrypted message.
Method for processing digital data frames to be transmitted by a transport network, said method comprising a step (i) during which each one of said digital data frames is downsized by removing of line codes, then compressed by compression of IQ samples they comprise, if necessary, and then compacted by clearing from unused data bytes they comprise to produce reduced digital data frames, a step (ii) during which at least some of said reduced digital data frames are aggregated together according to aggregation information to produce frame groups, and a step (iii) during which said frame groups are grouped together with a group descriptor, defining initial arrangements of said digital data frames, according to grouping information, to produce a transport frame to be transmitted by said transport network.
A method for manufacturing a semiconductor structure, comprising: providing a substrate and a plurality of discrete bit line structures located on the substrate, the bit line structure having a metal layer therein, a top surface of the metal layer being lower than a top surface of the bit line structure; forming a first isolation film filled between the adjacent bit line structures, a top surface of the first isolation film being higher than the top surface of the metal layer and lower than the top surface of the bit line structure; forming a first dielectric film on the top and sidewalls of the bit line structure and on the top surface of the first isolation film; and etching to remove the first dielectric film on the top of the bit line structures and the top surface of the first isolation film by a maskless dry etching process to form a first dielectric layer, and etching to remove the first isolation film exposed by the first dielectric layer to form a first isolation layer (133, 233) exactly below the first dielectric layer; characterized in that: a material for the first isolation layer comprises silicon; and after forming the first isolation layer, the first isolation layer is wet oxidized to generate silicon dioxide, and the silicon dioxide formed by a wet oxygen oxidation process has pores inside. providing a substrate and a plurality of discrete bit line structures located on the substrate, the bit line structure having a metal layer therein, a top surface of the metal layer being lower than a top surface of the bit line structure; forming a first isolation film filled between the adjacent bit line structures, a top surface of the first isolation film being higher than the top surface of the metal layer and lower than the top surface of the bit line structure; forming a first dielectric film on the top and sidewalls of the bit line structure and on the top surface of the first isolation film; and etching to remove the first dielectric film on the top of the bit line structures and the top surface of the first isolation film by a maskless dry etching process to form a first dielectric layer, and etching to remove the first isolation film exposed by the first dielectric layer to form a first isolation layer (133, 233) exactly below the first dielectric layer; characterized in that: a material for the first isolation layer comprises silicon; and after forming the first isolation layer, the first isolation layer is wet oxidized to generate silicon dioxide, and the silicon dioxide formed by a wet oxygen oxidation process has pores inside.
A computer-implemented method of making a decision on a blockchain, the method comprising: providing a first blockchain transaction having an output redeemable by means of a first signature (6a, 6b) associated with a selection of a candidate by a plurality of participants and a second signature (8a, 8b) associated with the selection, wherein the first signature is a signature by said selected candidate; providing each of said plurality of participants with at least one share of at least one respective secret value wherein a threshold number of shares is required in order to produce said second signature; and submitting the first blockchain transaction to the blockchain. providing a first blockchain transaction having an output redeemable by means of a first signature (6a, 6b) associated with a selection of a candidate by a plurality of participants and a second signature (8a, 8b) associated with the selection, wherein the first signature is a signature by said selected candidate; providing each of said plurality of participants with at least one share of at least one respective secret value wherein a threshold number of shares is required in order to produce said second signature; and submitting the first blockchain transaction to the blockchain.
A method in a producer network function for registering one or more services that the producer network function is capable of providing at a network repository function, NRF (410, 1400), the method comprising: transmitting a registration request to the NRF (410, 1400), wherein the registration request comprises registration information comprising: an indication of the one or more services; and an indication of data types and operations associated with each data type of the one or more services that are allowed per network function consumer type. an indication of the one or more services; and an indication of data types and operations associated with each data type of the one or more services that are allowed per network function consumer type.
A method of resistive implant welding thermoplastic composites comprising the steps of: providing at least two sections (12, 14) of a component to be welded together and formed of a thermoplastic weldable material, the at least two sections (12, 14) of the component each have a welding surface where the at least two sections of the component are welded together, the welding surface including at a first surface adjoining a second surface at an angle (θ) exceeding about 30 degrees; providing a first wire mesh conductor material (4; 34) positioned between the welding surface of the at least two sections (12, 14) along the first surface; providing a second wire mesh conductor material (5; 36) positioned between the welding surface of the at least two sections (12, 14) along the second surface, where the first and the second wire mesh conductors are positioned in an overlapping manner; and, operably welding the at least two sections (12, 14) of the component together, wherein the thermoplastic composition is conductive and the implant welding is conducted by first contacting and energizing both sides of the first wire mesh conductor and thereafter contacting and energizing both sides of the second wire mesh conductor. providing at least two sections (12, 14) of a component to be welded together and formed of a thermoplastic weldable material, the at least two sections (12, 14) of the component each have a welding surface where the at least two sections of the component are welded together, the welding surface including at a first surface adjoining a second surface at an angle (θ) exceeding about 30 degrees; providing a first wire mesh conductor material (4; 34) positioned between the welding surface of the at least two sections (12, 14) along the first surface; providing a second wire mesh conductor material (5; 36) positioned between the welding surface of the at least two sections (12, 14) along the second surface, where the first and the second wire mesh conductors are positioned in an overlapping manner; and, operably welding the at least two sections (12, 14) of the component together, wherein the thermoplastic composition is conductive and the implant welding is conducted by first contacting and energizing both sides of the first wire mesh conductor and thereafter contacting and energizing both sides of the second wire mesh conductor.
A computer-implemented method, comprising: monitoring, by a first logic of a database server, at least one of events occurring in an environment of the database server and execution errors generated by the database server; analyzing, by the first logic of the database server, at least one of the monitored events occurring in the environment of the database server and the monitored execution errors; detecting, by the first logic of the database server, a problem condition based upon the analysis of the at least one of the monitored events and the monitored execution errors; and in response to detecting the problem condition, sending one or more commands, by a second logic of the database server, to a database driver of a client that is communicatively connected to the database server within a context of a session established between the database server and the client as part of an application layer request/response protocol, the one or more commands specifying one or more actions to be taken by the database driver in response to the problem condition on behalf of a database application of the client, wherein sending the one or more commands to the database driver within the context of the session established between the database server and the client as part of an application layer request/response protocol comprises: generating a response to a request received from the database driver; adding the one or more commands to the response; and transmitting the modified response to the database driver. monitoring, by a first logic of a database server, at least one of events occurring in an environment of the database server and execution errors generated by the database server; analyzing, by the first logic of the database server, at least one of the monitored events occurring in the environment of the database server and the monitored execution errors; detecting, by the first logic of the database server, a problem condition based upon the analysis of the at least one of the monitored events and the monitored execution errors; and in response to detecting the problem condition, sending one or more commands, by a second logic of the database server, to a database driver of a client that is communicatively connected to the database server within a context of a session established between the database server and the client as part of an application layer request/response protocol, the one or more commands specifying one or more actions to be taken by the database driver in response to the problem condition on behalf of a database application of the client, wherein sending the one or more commands to the database driver within the context of the session established between the database server and the client as part of an application layer request/response protocol comprises: generating a response to a request received from the database driver; adding the one or more commands to the response; and transmitting the modified response to the database driver. generating a response to a request received from the database driver; adding the one or more commands to the response; and transmitting the modified response to the database driver.
A method for forming a flexographic plate comprising: providing an image pattern including image features to be formed on the flexographic plate, the image pattern including an array of image pixels, wherein the image pixels include printing pixels corresponding to portions of the image pattern where ink is to be printed on a substrate by the flexographic plate; identifying edge regions of the image features; identifying interior regions of the image features; wherein the edge regions and the interior regions are separated by gap regions (1004, 1102), wherein a width of the gap region (1004, 1102) is in the range of 5-30 μm; providing a fine texture pattern (1008, 1216); providing a coarse texture pattern (1012, 1220); applying the fine texture pattern (1008, 1216) to the edge regions of the image features and applying the coarse texture pattern (1012, 1220) to the interior regions of the image features to form a textured image pattern (1000, 1232), wherein no texture pattern is applied to the gap regions (1004, 1102) thereby leaving gaps between the edge regions and the interior regions of the image features; and forming a flexographic plate using the textured image pattern (1000, 1232). providing an image pattern including image features to be formed on the flexographic plate, the image pattern including an array of image pixels, wherein the image pixels include printing pixels corresponding to portions of the image pattern where ink is to be printed on a substrate by the flexographic plate; identifying edge regions of the image features; identifying interior regions of the image features; wherein the edge regions and the interior regions are separated by gap regions (1004, 1102), wherein a width of the gap region (1004, 1102) is in the range of 5-30 μm; providing a fine texture pattern (1008, 1216); providing a coarse texture pattern (1012, 1220); applying the fine texture pattern (1008, 1216) to the edge regions of the image features and applying the coarse texture pattern (1012, 1220) to the interior regions of the image features to form a textured image pattern (1000, 1232), wherein no texture pattern is applied to the gap regions (1004, 1102) thereby leaving gaps between the edge regions and the interior regions of the image features; and forming a flexographic plate using the textured image pattern (1000, 1232).
A method performed by a transmitting radio node for scheduling service data flows within a radio bearer towards a receiving radio node in a radio communications network, the method comprising: - identifying (202,502) at least two service data flows within the radio bearer towards the receiving radio node, wherein each service data flow is associated with a service and/or a service quality requirement, which service and/or service quality requirement is different for respective service data flow; characterized in comprising: - mapping (203,503) a Packet Data Convergence Protocol, PDCP, Service Data Unit, SDU, of respective service data flow to a respective scheduling queue on a PDCP layer, wherein each scheduling queue is associated with the service and/or the service quality requirement of the respective service data flow; and - scheduling (204,504) to the receiving radio node, the PDCP SDUs within the scheduling queues of the at least two service data flows, based on the service and/or the service quality requirement associated with the respective scheduling queue on the PDCP layer, wherein the scheduling (204,504), at a scheduling instant, comprises to combine PDCP SDUs of the scheduling queues adhering to the radio bearer, into one PDCP flow per radio bearer of PDCP Packet Data Units, PDUs, for which header compression, PDCP numbering and ciphering are performed and to forward the PDCP PDUs to Radio Link Control, RLC, and Medium Access Control, MAC, protocol layers for further treatment. - identifying (202,502) at least two service data flows within the radio bearer towards the receiving radio node, wherein each service data flow is associated with a service and/or a service quality requirement, which service and/or service quality requirement is different for respective service data flow; characterized in comprising: - mapping (203,503) a Packet Data Convergence Protocol, PDCP, Service Data Unit, SDU, of respective service data flow to a respective scheduling queue on a PDCP layer, wherein each scheduling queue is associated with the service and/or the service quality requirement of the respective service data flow; and - scheduling (204,504) to the receiving radio node, the PDCP SDUs within the scheduling queues of the at least two service data flows, based on the service and/or the service quality requirement associated with the respective scheduling queue on the PDCP layer, wherein the scheduling (204,504), at a scheduling instant, comprises to combine PDCP SDUs of the scheduling queues adhering to the radio bearer, into one PDCP flow per radio bearer of PDCP Packet Data Units, PDUs, for which header compression, PDCP numbering and ciphering are performed and to forward the PDCP PDUs to Radio Link Control, RLC, and Medium Access Control, MAC, protocol layers for further treatment.
An immunoconjugate, comprising: (a) a VHH chain of an anti-PD-L1 nanobody or an anti-PD-L1 nanobody with the VHH chain, wherein the amino acid sequence of the VHH chain is as defined in SEQ ID NO.: 2; and (b) a conjugating moiety that is a radionuclide comprising: (i) a diagnostic radioisotope selected from a group consisting of: Tc-99m, Ga-68, F-18, I-123, I-125, In-111, Ga-67, Cu-64, Zr-89, C-11, and a combination thereof; and/or (ii) a therapeutics radioisotope selected from a group consisting of: Lu-177, Y-90, Ac-225, As-211, Bi-212, Bi-213, Cs-137, Cr-51, Co-60, Dy-165, Er-169, Fm-255, Au-198, Ho-166, I-125, I-131, Ir-192, Fe-59, Pb-212, Mo-99, Pd-103, P-32, K-42, Re-186, Re-188, Sm-153, Ra-223, Ru-106, Na-24, Sr-89, Tb-149, Th-227, Xe-133, Yb-169, Yb-177, and a combination thereof. (a) a VHH chain of an anti-PD-L1 nanobody or an anti-PD-L1 nanobody with the VHH chain, wherein the amino acid sequence of the VHH chain is as defined in SEQ ID NO.: 2; and (b) a conjugating moiety that is a radionuclide comprising: (i) a diagnostic radioisotope selected from a group consisting of: Tc-99m, Ga-68, F-18, I-123, I-125, In-111, Ga-67, Cu-64, Zr-89, C-11, and a combination thereof; and/or (ii) a therapeutics radioisotope selected from a group consisting of: Lu-177, Y-90, Ac-225, As-211, Bi-212, Bi-213, Cs-137, Cr-51, Co-60, Dy-165, Er-169, Fm-255, Au-198, Ho-166, I-125, I-131, Ir-192, Fe-59, Pb-212, Mo-99, Pd-103, P-32, K-42, Re-186, Re-188, Sm-153, Ra-223, Ru-106, Na-24, Sr-89, Tb-149, Th-227, Xe-133, Yb-169, Yb-177, and a combination thereof. (i) a diagnostic radioisotope selected from a group consisting of: Tc-99m, Ga-68, F-18, I-123, I-125, In-111, Ga-67, Cu-64, Zr-89, C-11, and a combination thereof; and/or (ii) a therapeutics radioisotope selected from a group consisting of: Lu-177, Y-90, Ac-225, As-211, Bi-212, Bi-213, Cs-137, Cr-51, Co-60, Dy-165, Er-169, Fm-255, Au-198, Ho-166, I-125, I-131, Ir-192, Fe-59, Pb-212, Mo-99, Pd-103, P-32, K-42, Re-186, Re-188, Sm-153, Ra-223, Ru-106, Na-24, Sr-89, Tb-149, Th-227, Xe-133, Yb-169, Yb-177, and a combination thereof.