mhurhangee/patent-ind-claim-en huggingface dataset:
A carbonator for producing carbonated beverage comprising a carbonator head to which a beverage bottle may be fastened and a carbonator dissolver nozzle for introducing CO 2 -gas into a beverage, wherein the nozzle is adapted to protrude downward from the carbonator head and into the beverage bottle, the nozzle comprising - an upstream end that is adapted to be attached to the carbonator head , - a downstream end that is adapted to be immersed in the beverage within the bottle, and - a conduit leading though the nozzle from the upstream end to the downstream end, wherein at least the portion (p) of the nozzle that is immersed in the beverage during use is entirely made of metal, or wherein said portion (p) consists of parts entirely made of metal with non-metal sealing material between said parts, wherein at least the portion (p) of the nozzle that is immersed in the beverage during use has an outer surface of metal, characterized in that the area of the conduit is reduced in steps and comprises a main conduit section , and outlet taper section and an ultimate conduit section . - an upstream end that is adapted to be attached to the carbonator head , - a downstream end that is adapted to be immersed in the beverage within the bottle, and - a conduit leading though the nozzle from the upstream end to the downstream end, wherein at least the portion (p) of the nozzle that is immersed in the beverage during use is entirely made of metal, or wherein said portion (p) consists of parts entirely made of metal with non-metal sealing material between said parts, wherein at least the portion (p) of the nozzle that is immersed in the beverage during use has an outer surface of metal, characterized in that the area of the conduit is reduced in steps and comprises a main conduit section , and outlet taper section and an ultimate conduit section .
Machine for laying a bituminous carpet for closing microtrenches (T); said machine comprising: • a truck comprising a drive system for driving the machine , which defines a footprint area (C) on a surface whereon the truck can move; • a preparing device for preparing bitumen for laying, in its turn comprising: ∘ at least one container for containing bitumen, which comprises an inlet opening into which bitumen is introduced; ∘ an outlet opening through which the bitumen prepared for laying can exit; ∘ a heating system for raising the temperature of the bitumen, at least in the preparing device ; • a laying device for both receiving the bitumen prepared for laying that exits through said outlet opening and laying the bitumen in carpet form, said laying device comprising: ∘ a forming element for shaping the bitumen and laying it as a carpet over a laying area (A); ∘ a drain channel , interposed between the outlet opening and the forming element , for conducting the bitumen towards said forming element ; wherein said preparing device comprises a mixing device for mixing the bitumen while preparing it for laying; and wherein said machine is comprising at least one centering device fixed to the machine and adapted to be inserted into the microtrench (T) for moving the truck and/or the forming element in order to ensure that the forming element will be properly centered relative to the microtrench while laying the bitumen; said machine being characterized in that said centering device comprises a mobile arm connected to a steering system of the drive system of the machine and acting upon the steering wheels of the drive system . • a truck comprising a drive system for driving the machine , which defines a footprint area (C) on a surface whereon the truck can move; • a preparing device for preparing bitumen for laying, in its turn comprising: ∘ at least one container for containing bitumen, which comprises an inlet opening into which bitumen is introduced; ∘ an outlet opening through which the bitumen prepared for laying can exit; ∘ a heating system for raising the temperature of the bitumen, at least in the preparing device ; ∘ at least one container for containing bitumen, which comprises an inlet opening into which bitumen is introduced; ∘ an outlet opening through which the bitumen prepared for laying can exit; ∘ a heating system for raising the temperature of the bitumen, at least in the preparing device ; • a laying device for both receiving the bitumen prepared for laying that exits through said outlet opening and laying the bitumen in carpet form, ∘ a forming element for shaping the bitumen and laying it as a carpet over a laying area (A); ∘ a drain channel , interposed between the outlet opening and the forming element , for conducting the bitumen towards said forming element ;
A method comprising: setting, at a device , a target power to power control a physical uplink control channel transmission; computing a first maximum device output power for transmitting a first physical uplink control channel resource block in a first slot of a subframe; computing a second maximum device output power for transmitting a second physical uplink control channel resource block in a second slot of a subframe; determining a first difference in power by subtracting the target power from the first maximum device output power; determining a second difference in power by subtracting the target power from the second maximum device output power; and transmitting a physical uplink control channel resource block only in a slot of a subframe for the physical uplink control channel resource block of the first and second physical uplink control channel resource block with a lower additional maximum power reduction than the other of the first and second physical uplink control channel resource block's additional maximum power reduction when at least one of the first difference in power and the second difference in power is negative and the difference between the maximum of the first difference in power and the second difference in power and the minimum of the first difference in power and the second difference in power is greater than a threshold. setting, at a device , a target power to power control a physical uplink control channel transmission; computing a first maximum device output power for transmitting a first physical uplink control channel resource block in a first slot of a subframe; computing a second maximum device output power for transmitting a second physical uplink control channel resource block in a second slot of a subframe; determining a first difference in power by subtracting the target power from the first maximum device output power; determining a second difference in power by subtracting the target power from the second maximum device output power; and transmitting a physical uplink control channel resource block only in a slot of a subframe for the physical uplink control channel resource block of the first and second physical uplink control channel resource block with a lower additional maximum power reduction than the other of the first and second physical uplink control channel resource block's additional maximum power reduction when at least one of the first difference in power and the second difference in power is negative and the difference between the maximum of the first difference in power and the second difference in power and the minimum of the first difference in power and the second difference in power is greater than a threshold.
A cytotoxic protein comprising: a) an immunoglobulin-type binding region: (i) comprising one or more of: single-domain antibody fragment, single-chain variable fragment, antibody variable fragment, antigen-binding fragment, and Fd fragment; and (ii) capable of specifically binding at least one extracellular target biomolecule; and b) a cytotoxic Shiga toxin A Subunit effector polypeptide comprising: an amino acid sequence that is at least 85% identical to the amino acid sequence shown in SEQ ID NO: 1, SEQ ID NO: 2, or SEQ ID NO: 3; or an amino acid sequence selected from: (i) amino acids 75 to 251 of SEQ ID NO: 1, SEQ ID NO: 2, or SEQ ID NO: 3; (ii) amino acids 1 to 241 of SEQ ID NO: 1, SEQ ID NO: 2, or SEQ ID NO: 3; (iii) amino acids 1 to 251 of SEQ ID NO: 1, SEQ ID NO: 2, or SEQ ID NO: 3; and (iv) amino acids 1 to 261 of SEQ ID NO: 1, SEQ ID NO: 2, or SEQ ID NO: 3; whereby upon administration of the cytotoxic protein to a cell physically coupled with an extracellular target biomolecule of the immunoglobulin-type binding region, the cytotoxic protein is capable of causing death of the cell. a) an immunoglobulin-type binding region: (i) comprising one or more of: single-domain antibody fragment, single-chain variable fragment, antibody variable fragment, antigen-binding fragment, and Fd fragment; and (ii) capable of specifically binding at least one extracellular target biomolecule; and (i) comprising one or more of: single-domain antibody fragment, single-chain variable fragment, antibody variable fragment, antigen-binding fragment, and Fd fragment; and (ii) capable of specifically binding at least one extracellular target biomolecule; b) a cytotoxic Shiga toxin A Subunit effector polypeptide comprising: an amino acid sequence that is at least 85% identical to the amino acid sequence shown in SEQ ID NO: 1, SEQ ID NO: 2, or SEQ ID NO: 3; or an amino acid sequence selected from: (i) amino acids 75 to 251 of SEQ ID NO: 1, SEQ ID NO: 2, or SEQ ID NO: 3; (ii) amino acids 1 to 241 of SEQ ID NO: 1, SEQ ID NO: 2, or SEQ ID NO: 3; (iii) amino acids 1 to 251 of SEQ ID NO: 1, SEQ ID NO: 2, or SEQ ID NO: 3; and (iv) amino acids 1 to 261 of SEQ ID NO: 1, SEQ ID NO: 2, or SEQ ID NO: 3; an amino acid sequence that is at least 85% identical to the amino acid sequence shown in SEQ ID NO: 1, SEQ ID NO: 2, or SEQ ID NO: 3; or an amino acid sequence selected from: (i) amino acids 75 to 251 of SEQ ID NO: 1, SEQ ID NO: 2, or SEQ ID NO: 3; (ii) amino acids 1 to 241 of SEQ ID NO: 1, SEQ ID NO: 2, or SEQ ID NO: 3; (iii) amino acids 1 to 251 of SEQ ID NO: 1, SEQ ID NO: 2, or SEQ ID NO: 3; and (iv) amino acids 1 to 261 of SEQ ID NO: 1, SEQ ID NO: 2, or SEQ ID NO: 3; (i) amino acids 75 to 251 of SEQ ID NO: 1, SEQ ID NO: 2, or SEQ ID NO: 3; (ii) amino acids 1 to 241 of SEQ ID NO: 1, SEQ ID NO: 2, or SEQ ID NO: 3; (iii) amino acids 1 to 251 of SEQ ID NO: 1, SEQ ID NO: 2, or SEQ ID NO: 3; and (iv) amino acids 1 to 261 of SEQ ID NO: 1, SEQ ID NO: 2, or SEQ ID NO: 3;
A method performed by a network node controlling cellular traffic and Device-to-Device, D2D, traffic which is multiplexed on a same radio carrier in a same time window, the method being for adapting the allocation of radio resources on the radio carrier in the time window to at least one wireless device for D2D communications, wherein the allocation of radio resources for D2D communications to the at least one wireless device is a set of resources for D2D operations by the at least one wireless device , that have been configured by the network node in a wireless device-specific or non-wireless device-specific fashion, the at least one wireless device being located in a cell served by the network node , but wherein the network node does not have an active connection with the wireless device and is unable to receive a communication from the wireless device , wherein the wireless device is in idle mode with the network node but consumes from the allocated D2D radio resources on the radio carrier in the time window, the method comprising: obtaining a measurement of interference level on allocated D2D radio resources to the at least one wireless device , adapting the allocation of radio resources for D2D communications, based on the obtained measurement, wherein the adapting further comprises one of: increasing on the radio carrier in the time window a number of radio resources available for cellular traffic and reducing the number of radio resources available for D2D traffic, or reducing on the radio carrier in the time window the number of radio resources available for cellular traffic and increasing the number of radio resources available for D2D traffic, and signalling to the idle mode wireless device a reconfiguration of the allocation of radio resources on the radio carrier in the time window for D2D communications, which reconfiguration is based on the adapted allocation of radio resources for D2D communications. obtaining a measurement of interference level on allocated D2D radio resources to the at least one wireless device , adapting the allocation of radio resources for D2D communications, based on the obtained measurement, wherein the adapting further comprises one of: increasing on the radio carrier in the time window a number of radio resources available for cellular traffic and reducing the number of radio resources available for D2D traffic, or reducing on the radio carrier in the time window the number of radio resources available for cellular traffic and increasing the number of radio resources available for D2D traffic, and signalling to the idle mode wireless device a reconfiguration of the allocation of radio resources on the radio carrier in the time window for D2D communications, which reconfiguration is based on the adapted allocation of radio resources for D2D communications.
A method of operating an electronic device , the method comprising: detecting a first input with respect to a first domain name; detecting a second input with respect to a second domain name within a designated interval after the first input is detected; storing the second domain name as a domain name associated with the first domain name in a storage unit comprised in the electronic device , in response to detection of the second input; and transmitting a message for requesting information on an address corresponding to the first domain name and a message for requesting information on an address corresponding to the second domain name to a domain name system, DNS, server in response to detection of a third input with respect to the first domain name. detecting a first input with respect to a first domain name; detecting a second input with respect to a second domain name within a designated interval after the first input is detected; storing the second domain name as a domain name associated with the first domain name in a storage unit comprised in the electronic device , in response to detection of the second input; and transmitting a message for requesting information on an address corresponding to the first domain name and a message for requesting information on an address corresponding to the second domain name to a domain name system, DNS, server in response to detection of a third input with respect to the first domain name.
Method for operating a heating device , in particular a hot water heater, in a regeneration operating mode or in a regular operating mode to provide hot water, wherein cold water is filtered through at least one ion exchange filter , wherein the filtered water is conducted into and heated in a heat exchanger of the heating device , which heat exchanger is heated by a combustion process, wherein the heated water is conducted from the heating device , characterized in that a condensate formed during the combustion process is collected in a collection container and conducted through the ion exchange filter to regenerate the ion exchange filter during the regeneration operating mode.
A system for incising a lesion, comprising: a first catheter having a radially extending projection ; and a second catheter having an expandable portion ; wherein the first catheter is adapted for receiving the expandable portion of the second catheter to cause the radially extending projection to move outwardly to an activated configuration for incising the lesion, wherein the system is configured such that the first catheter is delivered to the lesion from a first vascular opening and the second catheter is delivered to the lesion from a second vascular opening opposite the first vascular opening. a first catheter having a radially extending projection ; and a second catheter having an expandable portion ; wherein the first catheter is adapted for receiving the expandable portion of the second catheter to cause the radially extending projection to move outwardly to an activated configuration for incising the lesion, wherein the system is configured such that the first catheter is delivered to the lesion from a first vascular opening and the second catheter is delivered to the lesion from a second vascular opening opposite the first vascular opening.
A sequencing probe comprising: a target binding domain and a barcode domain; wherein said target binding domain includes at least 12 nucleotides and is capable of binding a target nucleic acid; wherein said barcode domain includes a synthetic backbone, said barcode domain including at least four attachment positions, each attachment position including at least one attachment region, said attachment region including at least one nucleic acid sequence capable of being bound by a complementary nucleic acid molecule, wherein the at least four attachment positions correspond to the nucleotide sequence of the target binding domain and wherein each of the at least four attachment positions have a different nucleic acid sequence, and wherein said nucleic acid sequence of each position of the at least four attachment positions determines the identity of the target nucleic acid that is bound by said target binding domain. wherein said target binding domain includes at least 12 nucleotides and is capable of binding a target nucleic acid; wherein said barcode domain includes a synthetic backbone, said barcode domain including at least four attachment positions, each attachment position including at least one attachment region, said attachment region including at least one nucleic acid sequence capable of being bound by a complementary nucleic acid molecule, wherein the at least four attachment positions correspond to the nucleotide sequence of the target binding domain and wherein each of the at least four attachment positions have a different nucleic acid sequence, and wherein said nucleic acid sequence of each position of the at least four attachment positions determines the identity of the target nucleic acid that is bound by said target binding domain. wherein the at least four attachment positions correspond to the nucleotide sequence of the target binding domain and wherein each of the at least four attachment positions have a different nucleic acid sequence, and wherein said nucleic acid sequence of each position of the at least four attachment positions determines the identity of the target nucleic acid that is bound by said target binding domain.
A composition comprising a nuclease that induces DSBs only in specific phases of the cell cycle, the nuclease comprising a fusion protein comprising a cell-cycle regulated protein domain linked to an engineered nucleases, wherein the cell-cycle regulated protein domain is CtIP, Cdk2, Cyclin A1, Cyclin A2, Cyclin B1, or Gemini.
A data communication apparatus, comprising: a plurality of line drivers configured to couple the data communication apparatus to a 3-wire link ; a first wire state encoder configured to receive a first symbol in a sequence of symbols when the 3-wire link is in a first signaling state, and to define a second signaling state for the 3-wire link based on the first symbol and the first signaling state; and a second wire state encoder configured to receive a second symbol in the sequence of symbols, and to define a third signaling state for the 3-wire link based on the second symbol and the second signaling state, wherein the first symbol immediately precedes the second symbol in the sequence of symbols, wherein the 3-wire link transitions from the first signaling state to the second signaling state and from the second signaling state to the third signaling state in consecutive symbol transmission intervals, and wherein signaling states of at least one wire in the 3-wire link changes when the 3-wire link transitions from the second signaling state to the third signaling state; wherein the data communication apparatus further comprises: one or more mappers, each mapper being configured to map 16 bits of data to 7 symbols in the sequence of symbols, wherein the 3-wire link is operated in accordance with a C-PHY protocol. a plurality of line drivers configured to couple the data communication apparatus to a 3-wire link ; a first wire state encoder configured to receive a first symbol in a sequence of symbols when the 3-wire link is in a first signaling state, and to define a second signaling state for the 3-wire link based on the first symbol and the first signaling state; and a second wire state encoder configured to receive a second symbol in the sequence of symbols, and to define a third signaling state for the 3-wire link based on the second symbol and the second signaling state, wherein the first symbol immediately precedes the second symbol in the sequence of symbols, wherein the 3-wire link transitions from the first signaling state to the second signaling state and from the second signaling state to the third signaling state in consecutive symbol transmission intervals, and wherein signaling states of at least one wire in the 3-wire link changes when the 3-wire link transitions from the second signaling state to the third signaling state; wherein the data communication apparatus further comprises: one or more mappers, each mapper being configured to map 16 bits of data to 7 symbols in the sequence of symbols, wherein the 3-wire link is operated in accordance with a C-PHY protocol.
A dispenser having a plug and bobbin , wherein: the bobbin includes a coil wrapped around it, the coil and an oscillator creating an electromagnetic field at a base frequency; the plug is configured to be inserted into an open end of a rolled product, the plug comprising: a cylindrical-shaped stem ; a rounded cap coupled to the stem and extending therefrom; and a metallic ring mounted within the stem of the plug , wherein the metallic ring is positioned at one of multiple positions within the stem to define an inductive signature of the plug , and the stem having a complimentary shape with the opening of the bobbin of the dispenser such that the plug is configured to cooperate with the bobbing to set the position of the metallic ring relative to the bobbin ; wherein the set position of the metallic ring relative to the bobbin provides a unique signature that corresponds to a predetermined change in the frequency of the electromagnetic field when the plug is associated with the bobbin . the bobbin includes a coil wrapped around it, the coil and an oscillator creating an electromagnetic field at a base frequency; the plug is configured to be inserted into an open end of a rolled product, the plug comprising: a cylindrical-shaped stem ; a rounded cap coupled to the stem and extending therefrom; and a metallic ring mounted within the stem of the plug , wherein the metallic ring is positioned at one of multiple positions within the stem to define an inductive signature of the plug , and the stem having a complimentary shape with the opening of the bobbin of the dispenser such that the plug is configured to cooperate with the bobbing to set the position of the metallic ring relative to the bobbin ; a cylindrical-shaped stem ; a rounded cap coupled to the stem and extending therefrom; and a metallic ring mounted within the stem of the plug , wherein the metallic ring is positioned at one of multiple positions within the stem to define an inductive signature of the plug , and the stem having a complimentary shape with the opening of the bobbin of the dispenser such that the plug is configured to cooperate with the bobbing to set the position of the metallic ring relative to the bobbin ; wherein the set position of the metallic ring relative to the bobbin provides a unique signature that corresponds to a predetermined change in the frequency of the electromagnetic field when the plug is associated with the bobbin .