mhurhangee/patent-ind-claim-en huggingface dataset:
A method for transmitting a hybrid automatic repeat request, HARQ, acknowledge, ACK, /non-acknowledge, NACK, using a time division duplex, TDD, scheme by a user equipment, UE, in a wireless communication system, the method comprising: receiving a downlink, DL, shared channel in a corresponding subframe of a UE-specific TDD frame; and transmitting the HARQ ACK/NACK for the DL shared channel in an uplink, UL, subframe located closest to the corresponding subframe from among subframes located after at least four subframes from the corresponding subframe, wherein the UE-specific TDD frame includes a UE-common subframe interval and a UE-specific subframe interval, wherein a first subframe and a second subframe in the UE-specific TDD frame are configured as the UE-common subframe interval, and remaining subframes in the UE-specific TDD frame are configured as the UE-specific subframe interval, wherein the UE-common subframe interval corresponds to a subframe interval that is commonly configured in UEs of the wireless communication system or UEs of a cell including the UE, wherein a UE-specific subframe in the UE-specific subframe interval is user-specially configured as a DL subframe, a UL subframe, or a special subframe, and wherein the first subframe is a special subframe, and the second subframe is an UL subframe. receiving a downlink, DL, shared channel in a corresponding subframe of a UE-specific TDD frame; and transmitting the HARQ ACK/NACK for the DL shared channel in an uplink, UL, subframe located closest to the corresponding subframe from among subframes located after at least four subframes from the corresponding subframe, wherein the UE-specific TDD frame includes a UE-common subframe interval and a UE-specific subframe interval, wherein a first subframe and a second subframe in the UE-specific TDD frame are configured as the UE-common subframe interval, and remaining subframes in the UE-specific TDD frame are configured as the UE-specific subframe interval, wherein the UE-common subframe interval corresponds to a subframe interval that is commonly configured in UEs of the wireless communication system or UEs of a cell including the UE, wherein a UE-specific subframe in the UE-specific subframe interval is user-specially configured as a DL subframe, a UL subframe, or a special subframe, and wherein the first subframe is a special subframe, and the second subframe is an UL subframe.
Method of electrochemical utilization of carbon dioxide (CO 2 ), comprising the following steps: - providing a carbon dioxide electrolysis cell having a first anode space and a first cathode space , where the first anode space and the first cathode space are separated by a first membrane , where a first cathode is arranged within the first cathode space such that it separates a first cathode subspace and a second cathode subspace , where the first cathode subspace adjoins the first membrane , - guiding a first electrolyte (EL) as first catholyte (K1) into the first cathode subspace , - guiding the carbon dioxide (CO 2 ) into the second cathode subspace , - reducing the carbon dioxide (CO 2 ) to a first product gas (PG) in the second cathode subspace , - conducting the first catholyte (K1) out of the first cathode subspace and the product gas (PG) out of the second cathode subspace separately from one another, - combining the first product gas (PG) and the first catholyte (K1) downstream of the carbon dioxide electrolysis cell , - separating non-reduced carbon dioxide (CO 2 ) from the first product gas (PG) by means of the first catholyte (K1) as absorbent. - providing a carbon dioxide electrolysis cell having a first anode space and a first cathode space , where the first anode space and the first cathode space are separated by a first membrane , where a first cathode is arranged within the first cathode space such that it separates a first cathode subspace and a second cathode subspace , where the first cathode subspace adjoins the first membrane , - guiding a first electrolyte (EL) as first catholyte (K1) into the first cathode subspace , - guiding the carbon dioxide (CO 2 ) into the second cathode subspace , - reducing the carbon dioxide (CO 2 ) to a first product gas (PG) in the second cathode subspace , - conducting the first catholyte (K1) out of the first cathode subspace and the product gas (PG) out of the second cathode subspace separately from one another, - combining the first product gas (PG) and the first catholyte (K1) downstream of the carbon dioxide electrolysis cell , - separating non-reduced carbon dioxide (CO 2 ) from the first product gas (PG) by means of the first catholyte (K1) as absorbent.
A method of congestion avoidance in a packet switched network comprising the steps of: assembling, in an internet layer daemon of a first remote host , a datagram to be transmitted over the network to a second remote host , the datagram comprising: an address header ; and a payload ; fragmenting the datagram into a plurality of fragments, wherein each fragment in the plurality of fragments comprises: the address header; a fragmentation header comprising an identification value identifying the datagram and a fragment offset value ; and a payload fragment , wherein the payload fragments for each fragment in the plurality of fragments together comprise the payload ; transmitting each fragment in the plurality of fragments to a second remote host ; constructing, at the second remote host , a fragmentation data loss error message comprising: an identification value identifying the fragmented datagram; and a bitmap identifying the one or more lost fragments of the fragmented datagram; receiving, at the first remote host , the fragmentation data loss error message; and retransmitting the one or more lost fragments to the second remote host ; wherein each retransmitted fragment includes a bitmap mirroring the most recently received acknowledgement bitmap from the receiving daemon at the time of transmission. assembling, in an internet layer daemon of a first remote host , a datagram to be transmitted over the network to a second remote host , the datagram comprising: an address header ; and a payload ; an address header ; and a payload ; fragmenting the datagram into a plurality of fragments, wherein each fragment in the plurality of fragments comprises: the address header; a fragmentation header comprising an identification value identifying the datagram and a fragment offset value ; and a payload fragment , wherein the payload fragments for each fragment in the plurality of fragments together comprise the payload ; transmitting each fragment in the plurality of fragments to a second remote host ; the address header; a fragmentation header comprising an identification value identifying the datagram and a fragment offset value ; and a payload fragment , wherein the payload fragments for each fragment in the plurality of fragments together comprise the payload ; transmitting each fragment in the plurality of fragments to a second remote host ; constructing, at the second remote host , a fragmentation data loss error message comprising: an identification value identifying the fragmented datagram; and a bitmap identifying the one or more lost fragments of the fragmented datagram; an identification value identifying the fragmented datagram; and a bitmap identifying the one or more lost fragments of the fragmented datagram; receiving, at the first remote host , the fragmentation data loss error message; and retransmitting the one or more lost fragments to the second remote host ; wherein each retransmitted fragment includes a bitmap mirroring the most recently received acknowledgement bitmap from the receiving daemon at the time of transmission.
Cross-rolling unit with at least two rolls and with a roll housing in which at least one of the rolls is mounted to be adjustable in its position for changing the roll pass, characterised in that a roll positioning device comprises a part connected with the housing and a part which is movable relative thereto during the rolling and is connected with a rolling mill , the parts being adjustable relative to one another, and that a drive of the roll positioning unit is dimensioned in such a way as to be able to exert rolling forces, wherein the roll positioning device comprises at least one hydraulic cylinder and is variable in its setting during the rolling, wherein the roll positioning device comprises at least one movable hydraulic cylinder which is operable at more than 50,000 hPa and which is controllable by quick-action switching valves of the cross-rolling unit .
A fluid treatment system for an implantable blood pump having a percutaneous cable coupled thereto, the system comprising: a delivery tube comprising a distal end and a proximal end, the distal end configured to surround at least a portion of a percutaneous cable , the percutaneous cable extending from within a patient to outside the patient through tissue at an exit site , the proximal end being connectable to a fluid source and wherein fluid from the fluid source is configured to be delivered to the exit site through the delivery tube ; characterized in further comprising: an anchor coupleable to the percutaneous cable to secure the percutaneous cable to the tissue at the exit site ; and a vacuum assisted closure system being configured to remove the fluid delivered to the exit site and including a wound dressing attached or secured to form a seal around the delivery tube . a delivery tube comprising a distal end and a proximal end, the distal end configured to surround at least a portion of a percutaneous cable , the percutaneous cable extending from within a patient to outside the patient through tissue at an exit site , the proximal end being connectable to a fluid source and wherein fluid from the fluid source is configured to be delivered to the exit site through the delivery tube ; characterized in further comprising: an anchor coupleable to the percutaneous cable to secure the percutaneous cable to the tissue at the exit site ; and a vacuum assisted closure system being configured to remove the fluid delivered to the exit site and including a wound dressing attached or secured to form a seal around the delivery tube . an anchor coupleable to the percutaneous cable to secure the percutaneous cable to the tissue at the exit site ; and a vacuum assisted closure system being configured to remove the fluid delivered to the exit site and including a wound dressing attached or secured to form a seal around the delivery tube .
An atomizing device for an electronic cigarette, characterized by comprising: an atomizing sleeve , comprising an air pipe portion and a connection portion , wherein a head end of the air pipe portion is connected to a mouthpiece and a tail end of the air pipe portion is connected to a head end of the connection portion , an e-liquid hole is arranged at the tail end of the connection portion ; an atomizing core , removably arranged in the atomizing sleeve , wherein the atomizing core is configured to be inserted into the connection portion via a tail end of the connection portion , and then be connected to the tail end of the air pipe portion ; and a sealing mechanism , comprising a return spring and a liquid stopper , wherein the liquid stopper is arranged on an outer side of the connection portion and is connected to the atomizing sleeve via the return spring , and is configured to seal the e-liquid hole when the atomizing core is removed from the atomizing sleeve ; wherein when the atomizing core is inserted in the atomizing sleeve , the liquid stopper is configured to be pushed to overcome an elastic force of the return spring to open the e-liquid hole ; and when the atomizing core is removed from the atomizing sleeve , the liquid stopper is configured to seal the e-liquid hole under the elastic force of the return spring . an atomizing sleeve , comprising an air pipe portion and a connection portion , wherein a head end of the air pipe portion is connected to a mouthpiece and a tail end of the air pipe portion is connected to a head end of the connection portion , an e-liquid hole is arranged at the tail end of the connection portion ; an atomizing core , removably arranged in the atomizing sleeve , wherein the atomizing core is configured to be inserted into the connection portion via a tail end of the connection portion , and then be connected to the tail end of the air pipe portion ; and a sealing mechanism , comprising a return spring and a liquid stopper , wherein the liquid stopper is arranged on an outer side of the connection portion and is connected to the atomizing sleeve via the return spring , and is configured to seal the e-liquid hole when the atomizing core is removed from the atomizing sleeve ; wherein when the atomizing core is inserted in the atomizing sleeve , the liquid stopper is configured to be pushed to overcome an elastic force of the return spring to open the e-liquid hole ; and when the atomizing core is removed from the atomizing sleeve , the liquid stopper is configured to seal the e-liquid hole under the elastic force of the return spring .
A resin molded article having a matte surface, the resin molded article being obtained by molding a thermoplastic resin composition and at least part of the resin molded article having a matte surface having a 60-degree glossiness, determined according to JIS-Z-8741, of 1.5% or less, characterized in that the matte surface is a flat surface from which an entire surface layer portion is removed by laser light irradiation.
A utility meter , comprising: a cover ; a communication device positioned substantially adjacent to a surface of the cover ; an antenna coupled to the communication device , and mounted externally with respect to the cover ; and an antenna housing fixedly attached to the cover and configured to at least partially cover the antenna to insulate the antenna to prevent conduction of electricity outside of the meter , the antenna housing protruding from a top surface of the cover , characterized in that the antenna further comprises one or more hooks configured to engage at least a portion of the antenna housing . a cover ; a communication device positioned substantially adjacent to a surface of the cover ; an antenna coupled to the communication device , and mounted externally with respect to the cover ; and an antenna housing fixedly attached to the cover and configured to at least partially cover the antenna to insulate the antenna to prevent conduction of electricity outside of the meter , the antenna housing protruding from a top surface of the cover , characterized in that the antenna further comprises one or more hooks configured to engage at least a portion of the antenna housing .
A slide valve for a compressor, comprising a slide valve main body , characterized in that the slide valve for a compressor comprises a gas replenishing chamber and a gas replenishing outlet hole , wherein the gas replenishing chamber is disposed in the slide valve main body , the gas replenishing outlet hole is provided on a surface, facing to a compression chamber of the compressor, of the slide valve main body , and the gas replenishing outlet hole is in communication with the gas replenishing chamber ; the slide valve main body comprises a top central line , along an extension direction of the top central line , an end of the slide valve main body is provided with an opening which is in communication with the gas replenishing chamber , the slide valve for the compressor further comprises a sealing and pressing plate , and the sealing and pressing plate is fixedly provided on the slide valve main body , and seals the opening.
A system to transport a payload platform along a predefined path, comprising: a system controller configured to generate and transmit a variable timing signal; a propulsion platform , supporting the payload platform , configured to traverse the predefined path in synchronism with the timing signal received from the system controller . a system controller configured to generate and transmit a variable timing signal; a propulsion platform , supporting the payload platform , configured to traverse the predefined path in synchronism with the timing signal received from the system controller .
A method for producing a pellicle, comprising: forming a pellicle film on a substrate ; trimming the substrate ; and removing at least a part of the substrate after trimming the substrate , characterised in that the method further comprises removing at least particles attached to a surface of the pellicle film before removing the part of the substrate . forming a pellicle film on a substrate ; trimming the substrate ; and removing at least a part of the substrate after trimming the substrate , characterised in that the method further comprises removing at least particles attached to a surface of the pellicle film before removing the part of the substrate .
A method for producing a vehicular windshield having a laminated glass structure, comprising at least a pair of glass plates and an interlayer film for laminated glass interposed between the pair of glass plates, which comprises interposing an interlayer film for laminated glass between at least two glass plates to give a laminated glass component, preliminary pressure-bonding the resulting laminated glass component while removing air remaining between the glass plates and the interlayer film and then pressurizing the resulting glass component with heat, wherein the interlayer film for laminated glass includes a laminate of two or more resin layers and having a large number of recesses and a large number of projections on at least one surface, the recesses having a groove shape with a continuous bottom and being regularly arranged adjacently in parallel with one another, the surface with the large number of recesses and the large number of projections having a groove depth (Rzg) of the recesses determined in conformity with JIS B-0601 of 10 to 40 μm, and wherein the interlayer film for laminated glass is arranged in such a manner that the recesses having a groove shape with a continuous bottom on the surface of the interlayer film for laminated glass form an angle (C) of 30° or less relative to a perpendicular direction of the vehicular windshield when the interlayer film for laminated glass is interposed between at least two glass plates to give a laminated glass component. which comprises interposing an interlayer film for laminated glass between at least two glass plates to give a laminated glass component, preliminary pressure-bonding the resulting laminated glass component while removing air remaining between the glass plates and the interlayer film and then pressurizing the resulting glass component with heat, wherein the interlayer film for laminated glass includes a laminate of two or more resin layers and having a large number of recesses and a large number of projections on at least one surface, the recesses having a groove shape with a continuous bottom and being regularly arranged adjacently in parallel with one another, the surface with the large number of recesses and the large number of projections having a groove depth (Rzg) of the recesses determined in conformity with JIS B-0601 of 10 to 40 μm, and wherein the interlayer film for laminated glass is arranged in such a manner that the recesses having a groove shape with a continuous bottom on the surface of the interlayer film for laminated glass form an angle (C) of 30° or less relative to a perpendicular direction of the vehicular windshield when the interlayer film for laminated glass is interposed between at least two glass plates to give a laminated glass component.
Multi-layer board panel with a first cover layer , a second cover layer and at least one central layer arranged therebetween, wherein the cover layers are formed respectively from board layers with a plurality of boards (a, b, c) arranged next to one another, wherein at least one central layer is formed from wooden boards which are arranged next to one another and from one another to form the respective central layer so that material-free gaps are produced between adjacent wooden boards of a central layer , characterised in that the wooden boards of at least one central layer are formed from wooden planks which are arranged next to one another to form the respective central layer so that due to the uneven lateral edge region of the wooden planks, gaps are produced between adjacent wooden planks of a central layer .
A computer-implemented method performed by a computing system associated with at least one guarantor for processing guarantee information to be stored on a blockchain, the method comprising: receiving , from a computing device associated with an applicant, an application of a guarantee made by at least a first guarantor to a beneficiary, wherein the application includes information associated with an identity of the applicant, an identity of the beneficiary, and one or more predetermined conditions of executing the guarantee; generating a digital version of the guarantee based on the information included in the application; encrypting the digital version to generate cyphertext of the guarantee; generating , using a homomorphic encryption scheme, zero-knowledge proofs, ZKPs, related to values associated with the guarantee, wherein the values in the ZKPs comprise an encrypted actual loan amount, an encrypted remaining loanable amount, and an encrypted maximum loanable amount, and wherein the ZKPs are verified based on determining whether the encrypted actual loan amount and the encrypted remaining loanable amount add up to the encrypted maximum loanable amount; and sending the cyphertext and the ZKPs to a blockchain network to store the cyphertext on a blockchain, wherein the cyphertext is stored on the blockchain through consensus of blockchain nodes of the blockchain network after the ZKPs are successfully verified by the blockchain nodes. receiving , from a computing device associated with an applicant, an application of a guarantee made by at least a first guarantor to a beneficiary, wherein the application includes information associated with an identity of the applicant, an identity of the beneficiary, and one or more predetermined conditions of executing the guarantee; generating a digital version of the guarantee based on the information included in the application; encrypting the digital version to generate cyphertext of the guarantee; generating , using a homomorphic encryption scheme, zero-knowledge proofs, ZKPs, related to values associated with the guarantee, wherein the values in the ZKPs comprise an encrypted actual loan amount, an encrypted remaining loanable amount, and an encrypted maximum loanable amount, and wherein the ZKPs are verified based on determining whether the encrypted actual loan amount and the encrypted remaining loanable amount add up to the encrypted maximum loanable amount; and sending the cyphertext and the ZKPs to a blockchain network to store the cyphertext on a blockchain, wherein the cyphertext is stored on the blockchain through consensus of blockchain nodes of the blockchain network after the ZKPs are successfully verified by the blockchain nodes.