mhurhangee/patent-ind-claim-en huggingface dataset:
A method for transmitting data, characterized by comprising: receiving (S210), by a terminal device, configuration information through a Radio Resource Control, RRC, signaling sent by a network device, wherein the configuration information is used to configure one or more Slot Format Indicators, SFIs, corresponding to one or more Bandwidth Parts, BWPs, configured for the terminal device; wherein the configuration information comprises a corresponding relationship between a BWP and an SFI; determining (S220), by the terminal device, a currently used target SFI according to the configuration information; and performing (S230), by the terminal device, data transmission according to the target SFI; wherein the target SFI is used to indicate a slot structure corresponding to each slot of N slots, wherein a same slot structure is repeated for every N slots, N is a positive integer greater than 1; wherein performing (S230), by the terminal device, the data transmission according to the target SFI, comprises: taking, by the terminal device, N slots as a cycle, and performing, by the terminal device, the data transmission within every N slots according to the slot structure corresponding to the each slot of the N slots. receiving (S210), by a terminal device, configuration information through a Radio Resource Control, RRC, signaling sent by a network device, wherein the configuration information is used to configure one or more Slot Format Indicators, SFIs, corresponding to one or more Bandwidth Parts, BWPs, configured for the terminal device; wherein the configuration information comprises a corresponding relationship between a BWP and an SFI; determining (S220), by the terminal device, a currently used target SFI according to the configuration information; and performing (S230), by the terminal device, data transmission according to the target SFI; wherein the target SFI is used to indicate a slot structure corresponding to each slot of N slots, wherein a same slot structure is repeated for every N slots, N is a positive integer greater than 1; wherein performing (S230), by the terminal device, the data transmission according to the target SFI, comprises: taking, by the terminal device, N slots as a cycle, and performing, by the terminal device, the data transmission within every N slots according to the slot structure corresponding to the each slot of the N slots. taking, by the terminal device, N slots as a cycle, and performing, by the terminal device, the data transmission within every N slots according to the slot structure corresponding to the each slot of the N slots.
Conductive paste comprising (A) through (D) components below: (A) silver powder; (B) glass frit; (C) organic binder; and (D) powder containing copper, tin, and manganese, wherein the content of copper in terms of element is 0.005 to 2.85 parts by mass based on 100 parts by mass of the silver powder (A). (A) silver powder; (B) glass frit; (C) organic binder; and (D) powder containing copper, tin, and manganese,
A method of making a compound comprising at least one perfluorinated allyl ether group, the method comprising: combining first components comprising: CF 2 =CF-CF 2 -OSO 2 Cl a polyfluorinated compound comprising at least one ketone, carboxylic acid halide, or a combination thereof, and fluoride ion to provide the compound comprising at least one perfluorinated allyl ether group. CF 2 =CF-CF 2 -OSO 2 Cl a polyfluorinated compound comprising at least one ketone, carboxylic acid halide, or a combination thereof, and fluoride ion to provide the compound comprising at least one perfluorinated allyl ether group.
Electrically conductive moulding with inherent positive temperature coefficient made of a polymer composition which comprises at least one organic matrix polymer (compound material component A), at least one submicro- or nanoscale, electrically conductive additive (compound material component B) and at least one phase-change material with a phase-transition temperature in the range from -42 °C to +150 °C (compound material component D), and the melting range of the polymer composition is within the range from 100 °C to 450 °C, characterized in that the moulding is a monofilament, a multifilament, a fibre or a nonwoven fabric, the phase-change material has been bound into an organic network made of at least one copolymer based on at least two different ethylenic monomers (compound material component C), the copolymer being a block copolymer having at least two different polymer blocks, the phase-change material has been selected in a manner such that the electrical resistivity of the polymer composition increases by at least 50 % for a 60 °C temperature increase within the range from -42 °C to +150 °C, in association with a phase transition of the phase-change material, and the PTC effect results from an increase in the volume of the phase-change material as a consequence of the temperature increase, and when the PTC takes effect the electrically conductive moulding does not experience any changes in the morphology of the crystalline structures of the matrix polymer and does not melt and the mechanical properties of the electrically conductive moulding are not negatively impaired.
A photovoltaic cell, comprising: a substrate comprising an emitter disposed in the substrate, and a passivation layer stacked on a side of the emitter away from the substrate; wherein the emitter comprises a first plane and a second plane laminated along a thickness direction of the emitter, and part of the emitter between the second plane and the first plane is a first doped layer ; and within a unit volume, a rate of change ΔC 1 between doping concentration of the second plane and doping concentration of the first plane satisfies: ΔC 1 ≤15%; a third plane is provided on a side of the second plane away from the first plane , and part of the emitter between the third plane and the second plane is a second doped layer ; and a rate of change ΔC 2 between doping concentration of the third plane and the doping concentration of the second plane satisfies: ΔC 2 ≤30%; the rate of change ΔC 1 between doping concentration of the second plane and doping concentration of the first plane and the rate of change ΔC 2 between doping concentration of the third plane and the doping concentration of the second plane within a unit volume satisfy: ΔC 1 <ΔC 2 ; and a distance H1 between the second plane and the first plane satisfies: 0.3 μm≤H1≤0.35 μm; and a distance H2 between the third plane and the first plane satisfies: 0.5 μm≤H2≤0.7 μm. a substrate comprising an emitter disposed in the substrate, and a passivation layer stacked on a side of the emitter away from the substrate; wherein the emitter comprises a first plane and a second plane laminated along a thickness direction of the emitter, and part of the emitter between the second plane and the first plane is a first doped layer ; and within a unit volume, a rate of change ΔC 1 between doping concentration of the second plane and doping concentration of the first plane satisfies: ΔC 1 ≤15%; a third plane is provided on a side of the second plane away from the first plane , and part of the emitter between the third plane and the second plane is a second doped layer ; and a rate of change ΔC 2 between doping concentration of the third plane and the doping concentration of the second plane satisfies: ΔC 2 ≤30%; the rate of change ΔC 1 between doping concentration of the second plane and doping concentration of the first plane and the rate of change ΔC 2 between doping concentration of the third plane and the doping concentration of the second plane within a unit volume satisfy: ΔC 1 <ΔC 2 ; and a distance H1 between the second plane and the first plane satisfies: 0.3 μm≤H1≤0.35 μm; and a distance H2 between the third plane and the first plane satisfies: 0.5 μm≤H2≤0.7 μm.
A Method for controlling output voltage pulses of a PWM frequency converter, the PWM frequency converter comprising a network bridge for rectifying an alternating voltage of a supply network into a DC voltage (U DC ) of a DC intermediate circuit, which is filtered with a filtering capacitor (C DC ) and a load bridge , comprising phase switches (Q 21 ,Q 24 ; Q 22 ,Q 25 ; Q 23 ,Q 26 ) implemented with power semiconductor components (Q 21 ,Q 24 ,Q 22 ,Q 25 ,Q 23 ,Q 26 ), said load bridge forms AC output voltage (U, V, W) from the DC voltage of the intermediate circuit for controlling a load (M), characterized in that at least one power semiconductor component is controlled to be conductive and non-conductive in turn to change a pulse edge of the AC output voltage into a plurality of micropulses, wherein the width of the micropulses is controlled to increase towards a final switching state of the phase switches.
A frozen confection shaped bakery item dough composition comprising: from 16.0 wt% to 25.0 wt% water; from 15.0 wt% to 25.0 wt% sugar; from 6.0 wt% to 18.0 wt% fat; and, from 40.0 wt% to 48.0 wt% flour, and wherein the composition comprises a ratio of weight percent fat to flour of from 0.2:1 to 0.45:1 and sugar to flour of from 0.1:1 to 0.7:1, and with the proviso that the composition does not comprise egg yolk, lecithin or mixtures thereof. from 16.0 wt% to 25.0 wt% water; from 15.0 wt% to 25.0 wt% sugar; from 6.0 wt% to 18.0 wt% fat; and, from 40.0 wt% to 48.0 wt% flour,
A contrail suppression system , comprising: a shell having an exhaust gas inlet , an exhaust gas outlet , a condensate drain and a flow chamber in fluid communication with the exhaust gas inlet , the exhaust gas outlet and the condensate drain , wherein the exhaust gas inlet is in fluid communication with a jet exhaust nozzle of a gas turbine engine ; a first tube bundle disposed within the flow chamber downstream from the exhaust gas inlet , wherein the first tube bundle includes an inlet and an outlet , wherein the inlet of the first tube bundle is fluidly connected to a first cooling medium source ; the system being characterised in that it comprises a second tube bundle disposed within the flow chamber downstream from the first tube bundle and upstream from the exhaust gas outlet , wherein the second tube bundle includes an inlet and an outlet , wherein the inlet of the second tube bundle is fluidly connected to a second cooling medium source . a shell having an exhaust gas inlet , an exhaust gas outlet , a condensate drain and a flow chamber in fluid communication with the exhaust gas inlet , the exhaust gas outlet and the condensate drain , wherein the exhaust gas inlet is in fluid communication with a jet exhaust nozzle of a gas turbine engine ; a first tube bundle disposed within the flow chamber downstream from the exhaust gas inlet , wherein the first tube bundle includes an inlet and an outlet , wherein the inlet of the first tube bundle is fluidly connected to a first cooling medium source ; the system being characterised in that it comprises a second tube bundle disposed within the flow chamber downstream from the first tube bundle and upstream from the exhaust gas outlet , wherein the second tube bundle includes an inlet and an outlet , wherein the inlet of the second tube bundle is fluidly connected to a second cooling medium source .
A method for the diagnosis, prognosis, risk assessment and/or therapy monitoring of an invasive fungal infection in a subject, comprising the step of determining the level of the biomarker intercellular adhesion molecule 1 (ICAM1) in a sample of said subject, wherein said level of ICAM1 is indicative for the presence, the risk of getting, the severity and/or the type of an invasive fungal infection in said subject, and wherein the invasive fungal infection is an acute, serious fungal infection.
A method for operating a network entity provided in a wireless communications network, the method comprising: - receiving a message comprising a temporary identifier of a mobile entity , wherein the temporary identifier is used to temporarily identify the mobile entity, wherein the temporary identifier comprises an identifier of variable length which is used to identify a core network control entity (200a-c) which controls the mobile entity when connected to the network, - determining a length indicator present in the temporary identifier, the length indicator indicating a length of the identifier in the temporary identifier , - determining the identifier in the temporary identifier based on the length indicator and the core network control entity based on the identifier , - transmitting the received message to the determined core network control entity. - receiving a message comprising a temporary identifier of a mobile entity , wherein the temporary identifier is used to temporarily identify the mobile entity, wherein the temporary identifier comprises an identifier of variable length which is used to identify a core network control entity (200a-c) which controls the mobile entity when connected to the network, - determining a length indicator present in the temporary identifier, the length indicator indicating a length of the identifier in the temporary identifier , - determining the identifier in the temporary identifier based on the length indicator and the core network control entity based on the identifier , - transmitting the received message to the determined core network control entity.
A method of operating an aircraft during taxiing, the aircraft having: a) a landing gear drive system for providing driving torque during taxiing, b) a landing gear brake system for providing braking torque during taxiing, and c) a brake command device with a plurality of different command levels over a brake command range, the method comprising the steps of: i) during a non-braking time period; - taxiing the aircraft by using driving torque provided by the landing gear drive system, and - not providing a braking torque from the landing gear brake system, the method characterised by ii) during a braking time period; - providing the brake command device at one or more command levels within a sub-range of the brake command range, and - controlling the landing gear drive system, in response to the level of the brake command device, to reduce the driving torque provided from that in step i) to a lower yet still positive driving torque. a) a landing gear drive system for providing driving torque during taxiing, b) a landing gear brake system for providing braking torque during taxiing, and c) a brake command device with a plurality of different command levels over a brake command range, i) during a non-braking time period; - taxiing the aircraft by using driving torque provided by the landing gear drive system, and - not providing a braking torque from the landing gear brake system, the method characterised by - taxiing the aircraft by using driving torque provided by the landing gear drive system, and - not providing a braking torque from the landing gear brake system, the method characterised by ii) during a braking time period; - providing the brake command device at one or more command levels within a sub-range of the brake command range, and - controlling the landing gear drive system, in response to the level of the brake command device, to reduce the driving torque provided from that in step i) to a lower yet still positive driving torque. - providing the brake command device at one or more command levels within a sub-range of the brake command range, and - controlling the landing gear drive system, in response to the level of the brake command device, to reduce the driving torque provided from that in step i) to a lower yet still positive driving torque.
An extract of a hydroponically grown Tiliacora triandra plant or portion thereof.
A scroll compressor , comprising: a compressor housing ; an orbiting scroll member disposed within the compressor housing; a non-orbiting scroll member disposed within the compressor housing, wherein the orbiting scroll member and the non-orbiting scroll member are intermeshed thereby forming a compression chamber within the compressor housing, the non-orbiting scroll including a plurality of compression inlet ports including a first compression inlet port ; an economizer injection inlet formed through the compressor housing and in fluid communication with the compression chamber via the compression inlet ports; and a discharge outlet in fluid communication with the compression chamber; characterized in that an intermediate pressure chamber formed in the compressor housing between the non-orbiting scroll member and the compressor housing, the intermediate pressure chamber including a first helical channel fluidly connecting the economizer injection inlet to the first compression inlet port, the first helical channel configured to direct a first portion of working fluid from the economizer injection inlet to the first compression inlet ports. a compressor housing ; an orbiting scroll member disposed within the compressor housing; a non-orbiting scroll member disposed within the compressor housing, wherein the orbiting scroll member and the non-orbiting scroll member are intermeshed thereby forming a compression chamber within the compressor housing, the non-orbiting scroll including a plurality of compression inlet ports including a first compression inlet port ; an economizer injection inlet formed through the compressor housing and in fluid communication with the compression chamber via the compression inlet ports; and a discharge outlet in fluid communication with the compression chamber; characterized in that an intermediate pressure chamber formed in the compressor housing between the non-orbiting scroll member and the compressor housing, the intermediate pressure chamber including a first helical channel fluidly connecting the economizer injection inlet to the first compression inlet port, the first helical channel configured to direct a first portion of working fluid from the economizer injection inlet to the first compression inlet ports.
A method for the production of an article (MM) made of a composite material (CM); the method comprising: - a step of supplying a sheet of fibrous fabric ; - a cutting step , during which a cutting system cuts a profile from the sheet of fibrous fabric ; - a pre-forming step , during which an automatic pre-forming unit picks up said profile and deforms it based on a physical or virtual three-dimensional model ; - a depositing step , subsequent to the cutting step , during which the automatic pre-forming unit releases the pre-formed profile onto a respective forming portion of a die , which reproduces the final shape of the article (MM) to be produced; and - a lamination step , subsequent to the depositing step , during which an automatic lamination unit , by means of at least one lamination tool , processes the pre-formed profile , substantially causing it to adhere to the forming portion . - a step of supplying a sheet of fibrous fabric ; - a cutting step , during which a cutting system cuts a profile from the sheet of fibrous fabric ; - a pre-forming step , during which an automatic pre-forming unit picks up said profile and deforms it based on a physical or virtual three-dimensional model ; - a depositing step , subsequent to the cutting step , during which the automatic pre-forming unit releases the pre-formed profile onto a respective forming portion of a die , which reproduces the final shape of the article (MM) to be produced; and - a lamination step , subsequent to the depositing step , during which an automatic lamination unit , by means of at least one lamination tool , processes the pre-formed profile , substantially causing it to adhere to the forming portion .
A negative electrode active material for a non-aqueous electrolyte secondary battery, comprising: composite particles containing a lithium silicate phase , a silicon phase dispersed in the lithium silicate phase , and a crystalline phase of silicon dioxide dispersed in the lithium silicate phase , wherein the crystalline phase of silicon dioxide contains β-cristobalite and quartz, and the silicon phase has a crystallite size of 10 nm or less. composite particles containing a lithium silicate phase , a silicon phase dispersed in the lithium silicate phase , and a crystalline phase of silicon dioxide dispersed in the lithium silicate phase , wherein a lithium silicate phase , a silicon phase dispersed in the lithium silicate phase , and a crystalline phase of silicon dioxide dispersed in the lithium silicate phase , wherein the crystalline phase of silicon dioxide contains β-cristobalite and quartz, and the silicon phase has a crystallite size of 10 nm or less.
A method for Diameter signaling message external identifier address resolution and routing, the method comprising: at a Diameter signaling router, DSR, including at least one processor : receiving a Diameter signaling message; decoding the Diameter signaling message and determining that an external identifier attribute value pair, AVP, is present in the Diameter signaling message; in response to determining that an external identifier AVP is present in the Diameter signaling message, decoding contents of the external identifier AVP; performing a lookup in a domain table using a domain identifier component of the external identifier AVP and locating an entry corresponding to the domain identifier; determining whether a local identifier table is configured for the domain identifier component; in response to determining that the local identifier table is configured for the domain identifier component, performing a lookup in the local identifier table using a local identifier component of the external identifier AVP; populating at least one Diameter routing AVP of the Diameter signaling message with Diameter routing information obtained from the lookup in the domain table or the lookup in the local identifier table; and routing the Diameter signaling message using the Diameter routing information receiving a Diameter signaling message; decoding the Diameter signaling message and determining that an external identifier attribute value pair, AVP, is present in the Diameter signaling message; in response to determining that an external identifier AVP is present in the Diameter signaling message, decoding contents of the external identifier AVP; performing a lookup in a domain table using a domain identifier component of the external identifier AVP and locating an entry corresponding to the domain identifier; determining whether a local identifier table is configured for the domain identifier component; in response to determining that the local identifier table is configured for the domain identifier component, performing a lookup in the local identifier table using a local identifier component of the external identifier AVP; populating at least one Diameter routing AVP of the Diameter signaling message with Diameter routing information obtained from the lookup in the domain table or the lookup in the local identifier table; and routing the Diameter signaling message using the Diameter routing information
A can body printing system comprising: a distinction unit distinguishing a can body from another can body by identification information, wherein the identification information is at least one of an image attached to the barrel portion of the can body and a deformed portion provided to the can body; and a control unit using the identification information provided by the distinction unit and controlling to perform printing on the barrel portion of the can body distinguished from the another can body. a distinction unit distinguishing a can body from another can body by identification information, wherein the identification information is at least one of an image attached to the barrel portion of the can body and a deformed portion provided to the can body; and a control unit using the identification information provided by the distinction unit and controlling to perform printing on the barrel portion of the can body distinguished from the another can body.