mhurhangee/patent-ind-claim-en huggingface dataset:
An uplink channel measurement method for a wireless local area network, comprising: receiving , by a station, STA, a measurement notification message sent by an access point, AP, wherein the measurement notification message carries identifier information of a channel that needs to be measured; sending , by the STA, a sounding reference signal by using M idle sub-channels to the AP, so that the AP is able to measure the M idle sub-channels according to the received sounding reference signal, wherein the M idle sub-channels are M idle sub-channels determined by the STA from a channel indicated in the identifier information of the channel that needs to be measured, and M is an integer greater than or equal to 1, wherein the measurement notification message further carries a long training field, LTF, quantity indication field, and the method further comprises: determining, by the STA according to the LTF quantity indication field carried in the measurement notification message, a STA queue, and a moment at which the STA receives the measurement notification message, a second moment at which the STA sends the sounding reference signal, wherein the STA queue is obtained by sorting, according to a sequence of IDs that are of the STAs and that appear in the measurement notification message, the STAs that need to perform channel measurement, wherein the measurement notification message further carries a STA ID list comprising IDs of STAs to be scheduled to perform uplink channel measurement, wherein the STA is comprised in said STA ID list. receiving , by a station, STA, a measurement notification message sent by an access point, AP, wherein the measurement notification message carries identifier information of a channel that needs to be measured; sending , by the STA, a sounding reference signal by using M idle sub-channels to the AP, so that the AP is able to measure the M idle sub-channels according to the received sounding reference signal, wherein the M idle sub-channels are M idle sub-channels determined by the STA from a channel indicated in the identifier information of the channel that needs to be measured, and M is an integer greater than or equal to 1, wherein the measurement notification message further carries a long training field, LTF, quantity indication field, and the method further comprises: determining, by the STA according to the LTF quantity indication field carried in the measurement notification message, a STA queue, and a moment at which the STA receives the measurement notification message, a second moment at which the STA sends the sounding reference signal, wherein the STA queue is obtained by sorting, according to a sequence of IDs that are of the STAs and that appear in the measurement notification message, the STAs that need to perform channel measurement, wherein the measurement notification message further carries a STA ID list comprising IDs of STAs to be scheduled to perform uplink channel measurement, wherein the STA is comprised in said STA ID list.
An Fe-based alloy for melting-solidification shaping consisting of: 18.0 mass% ≤ Co < 25.0 mass%; 12.0 mass% ≤ Mo + W/2 ≤ 20.0 mass%; 0.2 mass% ≤ Mn ≤ 5.0 mass%; 0.5 mass% ≤ Ni ≤ 10.0 mass%, and optionally, Si ≤ 1.0 mass%; P ≤ 0.05 mass%; and S ≤ 0.05 mass%, with the balance being Fe and unavoidable impurities, namely Cr≤ 0.5 mass%, C ≤ 0.1 mass%, Cu ≤ 0.5 mass%, Al ≤ 0.2 mass%, N ≤ 0.1 mass%, O ≤ 0.1 mass%, Sn ≤ 0.05 mass%, Nb ≤ 0.05 mass%, Ta ≤ 0.05 mass%, Ti ≤ 0.5 mass%, Zr ≤ 0.05 mass%, B ≤ 0.02 mass%, Ca ≤ 0.01 mass%, Se ≤ 0.03 mass%, Te ≤ 0.03 mass%, Bi ≤ 0.03 mass%, Pb ≤ 0.05 mass%, Mg ≤ 0.02 mass%, and Rare Earth Metals, REM ≤ 0.01 mass% and satisfying the following expressions and when [M] represents a content of an element M expressed in mass% basis, 58 ≤ Co + 3 Mo + W / 2 ≤ 95 A / B ≥ 1.6 where A = Co + Ni + 3 Mn , and B = Mo + W / 2 + Si , wherein when the Fe-based alloy for melting-solidification shaping comprises no Mo, the expressions and are calculated using [Mo] = 0, when the Fe-based alloy for melting-solidification shaping comprises no Si, the expression is calculated using [Si] = 0, and when the Fe-based alloy for melting-solidification shaping comprises no W, the expressions and are calculated using [W] = 0. 18.0 mass% ≤ Co < 25.0 mass%; 12.0 mass% ≤ Mo + W/2 ≤ 20.0 mass%; 0.2 mass% ≤ Mn ≤ 5.0 mass%; 0.5 mass% ≤ Ni ≤ 10.0 mass%, and optionally, Si ≤ 1.0 mass%; P ≤ 0.05 mass%; and S ≤ 0.05 mass%, with the balance being Fe and unavoidable impurities, namely Cr≤ 0.5 mass%, C ≤ 0.1 mass%, Cu ≤ 0.5 mass%, Al ≤ 0.2 mass%, N ≤ 0.1 mass%, O ≤ 0.1 mass%, Sn ≤ 0.05 mass%, Nb ≤ 0.05 mass%, Ta ≤ 0.05 mass%, Ti ≤ 0.5 mass%, Zr ≤ 0.05 mass%, B ≤ 0.02 mass%, Ca ≤ 0.01 mass%, Se ≤ 0.03 mass%, Te ≤ 0.03 mass%, Bi ≤ 0.03 mass%, Pb ≤ 0.05 mass%, Mg ≤ 0.02 mass%, and Rare Earth Metals, REM ≤ 0.01 mass% and satisfying the following expressions and when [M] represents a content of an element M expressed in mass% basis, 58 ≤ Co + 3 Mo + W / 2 ≤ 95 A / B ≥ 1.6 where A = Co + Ni + 3 Mn , and B = Mo + W / 2 + Si , wherein when the Fe-based alloy for melting-solidification shaping comprises no Mo, the expressions and are calculated using [Mo] = 0, when the Fe-based alloy for melting-solidification shaping comprises no Si, the expression is calculated using [Si] = 0, and when the Fe-based alloy for melting-solidification shaping comprises no W, the expressions and are calculated using [W] = 0.
A chimeric protein comprising: (a) one targeting moiety, said targeting moiety comprising a recognition domain which specifically binds to programmed cell death protein 1 ligand 1 (PD-L1), wherein the recognition domain comprises a full-length antibody, a single-domain antibody, a recombinant heavy-chain-only antibody (VHH), a single-chain antibody (scFv), a shark heavy-chain-only antibody (VNAR), a Fv, a Fab, a Fab', a F(ab') 2 ; and (b) a modified signaling agent, wherein the modified signaling agent is a human interferon alpha 2 (IFNα2) comprising an amino acid sequence having at least 98% identity with a sequence selected from SEQ ID NO: 179 or 180 and having one or more mutations at positions 144-154; wherein the mutated human IFNα2 has reduced affinity or activity as compared to wild type human IFNα2, and wherein the reduced affinity or activity of the mutated human IFNα2 is restorable by attachment to the targeting moiety. (a) one targeting moiety, said targeting moiety comprising a recognition domain which specifically binds to programmed cell death protein 1 ligand 1 (PD-L1), wherein the recognition domain comprises a full-length antibody, a single-domain antibody, a recombinant heavy-chain-only antibody (VHH), a single-chain antibody (scFv), a shark heavy-chain-only antibody (VNAR), a Fv, a Fab, a Fab', a F(ab') 2 ; and (b) a modified signaling agent, wherein the modified signaling agent is a human interferon alpha 2 (IFNα2) comprising an amino acid sequence having at least 98% identity with a sequence selected from SEQ ID NO: 179 or 180 and having one or more mutations at positions 144-154; wherein the mutated human IFNα2 has reduced affinity or activity as compared to wild type human IFNα2, and wherein the reduced affinity or activity of the mutated human IFNα2 is restorable by attachment to the targeting moiety.
Immunoregulatory vaccine comprising - a directed adjuvant comprising at least an anti-CD32 moiety linked to a TLR9 ligand and a first peptidic alpha-helix, wherein the anti-CD32 moiety is a protein or peptide specifically binding to CD32, and wherein the TLR9 ligand is a CpG oligodeoxynucleotide; and - an immunogen with at least one epitope and a second peptidic alpha-helix coiled to the first alpha-helix, wherein the coiled coil is a heterocoil of two different matching helices, which differ in at least one amino acid in the coil repeat sequence and wherein each of said first and second alpha-helices comprises 3-5 amino acid repeats of an amino acid motif. - a directed adjuvant comprising at least an anti-CD32 moiety linked to a TLR9 ligand and a first peptidic alpha-helix, wherein the anti-CD32 moiety is a protein or peptide specifically binding to CD32, and wherein the TLR9 ligand is a CpG oligodeoxynucleotide; and - an immunogen with at least one epitope and a second peptidic alpha-helix coiled to the first alpha-helix,
A beverage preparation apparatus comprising a brewing chamber for containing at least one ingredient for the beverage preparation, at least one pump to supply a diluent liquid from at least one diluent source to said brewing chamber and at least two heating means , for heating a diluent liquid flowing therethrough, characterised in that said heating means include at least two distinct pipe heaters which are arranged parallel upstream of said brewing chamber to feed diluent to said chamber , said heating means including said at least two distinct pipe heaters being independently controlled by a controller (C) configured to independently supply power to said pipe heaters to activate said pipe heaters , wherein said pipe heater is a hollow pipe bearing a heating film on the outer surface, and wherein the liquid passing inside said hollow pipe is heated through the pipe material and said at least two pipe heaters are provided with temperature sensors (S), which are electrically connected to the controller and are configured to measure the temperature of said diluent liquids exiting from said at least two pipe heaters .
A hinge device for eyeglasses, comprising an accommodation body to be mounted to a spectacle front frame, the accommodation body being provided with engagement seats for gripping and locking a hinge body to an end piece of an eyeglass frame, said hinge body comprising a central body that is adapted to engage within said accommodation body , said central body being adapted to engage in turn a temple of said eyeglass frame, characterized in that said central body being defined by a single element that is folded onto itself so as to define a first C-shaped hollow body, said accommodation body being defined by a second C-shaped hollow body provided with engagement seats (8; 17), said first C-shaped hollow body being provided with teeth that are adapted to engage engagement seats (8; 17) that are defined in said accommodation body , said hinge body and said accommodation body being made of flexible materials so as to allow the deformation of the engagement teeth of the first C-shaped hollow body and of the walls of the second C-shaped hollow body at the moment of insertion of the hinge body in the accommodation body .
A method comprising: generating a probe signal from a sub-array of a plurality of sub-arrays of a downhole tool and receiving, in the sub-array, a signal from a first direction and a signal from a second direction in response to generating the probe signal, the sub-arrays of the tool arranged to make azimuthal measurements related to the resistivity of a formation around a borehole ; the method being characterized in carrying out, using a data processing unit (120; 1020), the steps of: comparing a first resistivity-related measurement from the signal from the first direction to a second resistivity-related measurement from the signal from the second direction to determine a difference; comparing the difference to a threshold level; recording a resistivity-related measurement as a valid measurement for determining formation resistivity based on the comparison of the difference to the threshold level only when the difference is less than or equal to the threshold level, and disregarding the resistivity-related measurement when the difference exceeds the threshold level; and determining the formation resistivity from resistivity-related measurements recorded as valid measurements. generating a probe signal from a sub-array of a plurality of sub-arrays of a downhole tool and receiving, in the sub-array, a signal from a first direction and a signal from a second direction in response to generating the probe signal, the sub-arrays of the tool arranged to make azimuthal measurements related to the resistivity of a formation around a borehole ; the method being characterized in carrying out, using a data processing unit (120; 1020), the steps of: comparing a first resistivity-related measurement from the signal from the first direction to a second resistivity-related measurement from the signal from the second direction to determine a difference; comparing the difference to a threshold level; recording a resistivity-related measurement as a valid measurement for determining formation resistivity based on the comparison of the difference to the threshold level only when the difference is less than or equal to the threshold level, and disregarding the resistivity-related measurement when the difference exceeds the threshold level; and determining the formation resistivity from resistivity-related measurements recorded as valid measurements. comparing a first resistivity-related measurement from the signal from the first direction to a second resistivity-related measurement from the signal from the second direction to determine a difference; comparing the difference to a threshold level; recording a resistivity-related measurement as a valid measurement for determining formation resistivity based on the comparison of the difference to the threshold level only when the difference is less than or equal to the threshold level, and disregarding the resistivity-related measurement when the difference exceeds the threshold level; and determining the formation resistivity from resistivity-related measurements recorded as valid measurements.
A method to mechanically join two conductor materials with a different melting temperature; said method comprising, in succession - a contact step, during which a surface of a material with a higher melting temperature , where there are grooves , is arranged in contact with a surface of a material with a lower melting temperature , and - a joining step, during which the two materials are subjected to a coupling pressure and, at the same time, are crossed through by a current at the plurality of grooves until the grooves are filled with said material with a lower melting temperature; said method being characterized in that said grooves have an undercut profile. - a contact step, during which a surface of a material with a higher melting temperature , where there are grooves , is arranged in contact with a surface of a material with a lower melting temperature , and - a joining step, during which the two materials are subjected to a coupling pressure and, at the same time, are crossed through by a current at the plurality of grooves until the grooves are filled with said material with a lower melting temperature;
A hardware module configured to be mounted on a rack , the hardware module comprising: a storage device (120; 230) configured to store information to be transmitted to a network device (130; 210), via a communication component (140; 525), when the network device is mounted on the rack, the communication component configured to communicate the information from the storage device to the network device when the network device is mounted on the rack, a mating component configured to mate the communication component and the network device, and a housing ; wherein the hardware module is configured to be placed into one of one or more states including: a mating state wherein the mating component has extended the communication component from the housing, when the network device is mounted on the rack, and a non-mating state wherein the mating component has retracted the communication component within the housing; and wherein the hardware module is further configured to, when the network device is mounted on the rack, automatically switch to the mating state and automatically communicate the information to the network device. a storage device (120; 230) configured to store information to be transmitted to a network device (130; 210), via a communication component (140; 525), when the network device is mounted on the rack, the communication component configured to communicate the information from the storage device to the network device when the network device is mounted on the rack, a mating component configured to mate the communication component and the network device, and a housing ; wherein the hardware module is configured to be placed into one of one or more states including: a mating state wherein the mating component has extended the communication component from the housing, when the network device is mounted on the rack, and a non-mating state wherein the mating component has retracted the communication component within the housing; and wherein the hardware module is further configured to, when the network device is mounted on the rack, automatically switch to the mating state and automatically communicate the information to the network device. wherein the hardware module is configured to be placed into one of one or more states including: a mating state wherein the mating component has extended the communication component from the housing, when the network device is mounted on the rack, and a non-mating state wherein the mating component has retracted the communication component within the housing; and a mating state wherein the mating component has extended the communication component from the housing, when the network device is mounted on the rack, and a non-mating state wherein the mating component has retracted the communication component within the housing; and wherein the hardware module is further configured to, when the network device is mounted on the rack, automatically switch to the mating state and automatically communicate the information to the network device.
A distribution device which includes a computer processor, the distribution device comprising: a storage unit configured to store information relating to a peripheral device that is available in a predetermined location , the storage unit comprising a configuration information database configured to store application information indicating the location of a template of the application to be used when the peripheral device is used; a generation unit configured to generate the application by using the stored information relating to the peripheral device and the template indicated by the stored template information; and a distribution unit configured to distribute the generated application to a mobile terminal when the mobile terminal is detected in the predetermined location. a storage unit configured to store information relating to a peripheral device that is available in a predetermined location , the storage unit comprising a configuration information database configured to store application information indicating the location of a template of the application to be used when the peripheral device is used; a generation unit configured to generate the application by using the stored information relating to the peripheral device and the template indicated by the stored template information; and a distribution unit configured to distribute the generated application to a mobile terminal when the mobile terminal is detected in the predetermined location.
Microfluidic cartridge comprising a sampling device having a sealing ring arranged to form a microfluidic chamber when a support containing a biological sample fixed thereon is brought into contact with the sealing ring, and a microfluidic network device configured to supply reagents to the microfluidic chamber, the sampling device further comprising inlet and outlet distribution networks in fluid communication with the microfluidic chamber and a slide holder to guide and position said support containing a biological sample on the sampling device, the microfluidic network device comprising a plurality of reagent inlet channels fluidly connectable to reagent sources, at least one reagent outlet channel fluidly connected to the sampling device inlet distribution network , and a plurality of valves operable to selectively connect the inlet channels to the at least one outlet channel, wherein the sampling device and microfluidic network device are formed on a common microfluidic support as a single part. the sampling device further comprising inlet and outlet distribution networks in fluid communication with the microfluidic chamber and a slide holder to guide and position said support containing a biological sample on the sampling device, the microfluidic network device comprising a plurality of reagent inlet channels fluidly connectable to reagent sources, at least one reagent outlet channel fluidly connected to the sampling device inlet distribution network , and a plurality of valves operable to selectively connect the inlet channels to the at least one outlet channel, wherein the sampling device and microfluidic network device are formed on a common microfluidic support as a single part.
A user terminal configured to carry out radio communication with a primary cell and a secondary cell by employing carrier aggregation, the user terminal comprising: a receiving section configured to, when a connection is established with a TDD cell that constitutes the secondary cell, receive configuration information about a given DL/UL configuration that is selected from a plurality of DL/UL configurations, and configured to, when receiving a radio resource control signaling that signals that a dynamic indication of DL/UL configuration is used, receive the dynamic indication of DL/UL configuration using a physical downlink control channel; and a control section configured to control transmission and reception to and from the secondary cell based on the dynamic indication of DL/UL configuration, wherein the control section is configured to, when the primary cell is an FDD cell and the dynamic indication of DL/UL configuration is a configuration of only DL communication in the secondary cell, feedback an A/N in response to each DL subframe of the secondary cell by multiplexing the A/N to a physical uplink control channel in predetermined UL subframes of the primary cell. a receiving section configured to, when a connection is established with a TDD cell that constitutes the secondary cell, receive configuration information about a given DL/UL configuration that is selected from a plurality of DL/UL configurations, and configured to, when receiving a radio resource control signaling that signals that a dynamic indication of DL/UL configuration is used, receive the dynamic indication of DL/UL configuration using a physical downlink control channel; and a control section configured to control transmission and reception to and from the secondary cell based on the dynamic indication of DL/UL configuration,
A charger for coupling with an implantable neurostimulator for delivering one or more electrical pulses to a target region within a patient's body, the charger comprising: a power source for storing electrical energy; a resonant circuit, wherein the resonant circuit is configurable to a plurality of natural frequencies; a driver coupled to the power source and the resonant circuit, wherein the driver is configured to power the resonant circuit; and a processor coupled to the resonant circuit to control the natural frequency of the resonant circuit, characterized in that the processor is configured to control the natural frequency of the resonant circuit according to stored data associated with the implantable neurostimulator. a power source for storing electrical energy; a resonant circuit, wherein the resonant circuit is configurable to a plurality of natural frequencies; a driver coupled to the power source and the resonant circuit, wherein the driver is configured to power the resonant circuit; and a processor coupled to the resonant circuit to control the natural frequency of the resonant circuit, characterized in that the processor is configured to control the natural frequency of the resonant circuit according to stored data associated with the implantable neurostimulator.