mhurhangee/patent-ind-claim-en huggingface dataset:
A film mask comprising: a transparent substrate; a darkened light-shielding pattern layer provided on the transparent substrate; and groove portions provided in a region where the darkened light-shielding pattern layer is not provided, characterized in that a metal layer is provided between the transparent substrate and the darkened light-shielding pattern layer, the film mask comprises two or more regions of the metal layer where the thicknesses are different from each other or two or more regions of the darkened light-shielding pattern layer where the thicknesses are different from each other, or the film mask comprises a region where a metal layer is provided between the transparent substrate and the darkened light-shielding pattern layer and a region where the transparent substrate and the darkened light-shielding pattern layer are brought into direct contact with each other, wherein the darkened light-shielding pattern layer has a reflectance of about 30% or less in a UV region range, and the transparent substrate has a visible light transmittance of 50% or more. a transparent substrate; a darkened light-shielding pattern layer provided on the transparent substrate; and groove portions provided in a region where the darkened light-shielding pattern layer is not provided, characterized in that a metal layer is provided between the transparent substrate and the darkened light-shielding pattern layer, the film mask comprises two or more regions of the metal layer where the thicknesses are different from each other or two or more regions of the darkened light-shielding pattern layer where the thicknesses are different from each other, or the film mask comprises a region where a metal layer is provided between the transparent substrate and the darkened light-shielding pattern layer and a region where the transparent substrate and the darkened light-shielding pattern layer are brought into direct contact with each other, wherein the darkened light-shielding pattern layer has a reflectance of about 30% or less in a UV region range, and the transparent substrate has a visible light transmittance of 50% or more.
A data transmission method, comprising: determining , by a base station, a first phase noise compensation pilot signal, PCRS, port set and a second PCRS port set in a first scheduling period, wherein the first PCRS port set comprises at least one port used to transmit a PCRS in the first scheduling period, but the second PCRS port set does not comprise a port used to transmit the PCRS in the first scheduling period; determining, by the base station, a modulation and coding scheme, MCS, and notifying a user equipment of the MCS; determining , by the base station based on the MCS and an association relationship maintained at the base station and the user equipment, a first time-frequency resource element corresponding to the at least one port in the first PCRS port set; if a quantity of first time-frequency resource elements is greater than or equal to 1, sending , by the base station, the PCRS to the user equipment on the first time-frequency resource element; and sending , by the base station by using the MCS, data to the user equipment on a second time-frequency resource element corresponding to the second PCRS port set. determining , by a base station, a first phase noise compensation pilot signal, PCRS, port set and a second PCRS port set in a first scheduling period, wherein the first PCRS port set comprises at least one port used to transmit a PCRS in the first scheduling period, but the second PCRS port set does not comprise a port used to transmit the PCRS in the first scheduling period; determining, by the base station, a modulation and coding scheme, MCS, and notifying a user equipment of the MCS; determining , by the base station based on the MCS and an association relationship maintained at the base station and the user equipment, a first time-frequency resource element corresponding to the at least one port in the first PCRS port set; if a quantity of first time-frequency resource elements is greater than or equal to 1, sending , by the base station, the PCRS to the user equipment on the first time-frequency resource element; and sending , by the base station by using the MCS, data to the user equipment on a second time-frequency resource element corresponding to the second PCRS port set.
A flexible ethernet, FlexE, path establishment method, comprising: receiving (S510), by a first forwarding node, a first path establishment request message sent by a first source node, wherein the first path establishment request message is used to establish a first FlexE path between the first source node and a first destination node, the first FlexE path is used to transmit a first service flow, the first path establishment request message comprises first routing information, the first routing information is used to indicate information about a node on the first FlexE path, and the first forwarding node on the first FlexE path is an upstream node of a second forwarding node on the first FlexE path; establishing (S520), by the first forwarding node, a second FlexE path between the first forwarding node and the second forwarding node based on the first path establishment request message, characterised by further comprising: deleting an established third FlexE path between the first forwarding node and the second forwarding node after the second FlexE path is established, wherein the third FlexE path is used to transmit a second service flow, and the second FlexE path can meet a bandwidth requirement of the first service flow and a bandwidth requirement of the second service flow; and establishing and storing (S530), by the first forwarding node, a correspondence between the first FlexE path and the second FlexE path, so that the first service flow and the second service flow are mapped to a slot on the second FlexE path. receiving (S510), by a first forwarding node, a first path establishment request message sent by a first source node, wherein the first path establishment request message is used to establish a first FlexE path between the first source node and a first destination node, the first FlexE path is used to transmit a first service flow, the first path establishment request message comprises first routing information, the first routing information is used to indicate information about a node on the first FlexE path, and the first forwarding node on the first FlexE path is an upstream node of a second forwarding node on the first FlexE path; establishing (S520), by the first forwarding node, a second FlexE path between the first forwarding node and the second forwarding node based on the first path establishment request message, characterised by further comprising: deleting an established third FlexE path between the first forwarding node and the second forwarding node after the second FlexE path is established, wherein the third FlexE path is used to transmit a second service flow, and the second FlexE path can meet a bandwidth requirement of the first service flow and a bandwidth requirement of the second service flow; and establishing and storing (S530), by the first forwarding node, a correspondence between the first FlexE path and the second FlexE path, so that the first service flow and the second service flow are mapped to a slot on the second FlexE path.
A high-concentration ammonia production method, the high-concentration ammonia production method is characterised by comprising: synthesizing ammonia through electrolysis using water and nitrogen as raw materials; subjecting a resultant generation gas to treatment using an ammonia separation membrane or an ammonia PSA to separate the generation gas into high-concentration ammonia and a residual gas; recycling the residual gas as a nitrogen gas raw material of an ammonia synthesis reactor, and liquefying the high-concentration ammonia recovered through the ammonia separation membrane or the ammonia PSA; and subjecting an unliquefied gas separated from liquefied ammonia to the treatment using the ammonia separation membrane or the ammonia PSA again. synthesizing ammonia through electrolysis using water and nitrogen as raw materials; subjecting a resultant generation gas to treatment using an ammonia separation membrane or an ammonia PSA to separate the generation gas into high-concentration ammonia and a residual gas; recycling the residual gas as a nitrogen gas raw material of an ammonia synthesis reactor, and liquefying the high-concentration ammonia recovered through the ammonia separation membrane or the ammonia PSA; and subjecting an unliquefied gas separated from liquefied ammonia to the treatment using the ammonia separation membrane or the ammonia PSA again.
A method of lining at least one part of an internal wall of a wellbore conduit, the method comprising the steps of: (a) providing at least one piece of material to be applied to the internal wall of the wellbore conduit, the piece of material having a thickness (T) in the range of 0.10 to 0.40 mm; (b) applying adhesive onto the piece of material , thereafter rolling up or curling up the piece of material with the adhesive applied thereupon, and providing the curled or rolled up piece of material on an inserter tool ; (c) inserting the inserter tool with the rolled or curled up piece of material into the conduit and running the inserter tool into the conduit to position the curled or rolled up material therein; and (d) releasing the piece of material from the inserter tool , in order to let the piece of material to at least partially uncurl or unroll, allowing the inserted piece of material to at least partially uncurl or unroll inside the conduit, utilising the adhesive to secure the piece of material in place, so as to apply the material and obtain a laminate which lines said part of the internal wall of the conduit; wherein the piece of material is configured to be flexible and resilient, such that in step d the piece of material exerts a resilient force component in response to being rolled or curled up by which the piece of material is urged to at least partially uncurl or unroll inside the conduit, in order to apply the material and obtain the laminate on said part of the internal wall of the conduit; wherein the laminate comprises a combination of the adhesive and overlapping sections of the piece of material ; wherein the inserter tool comprises: a mandrel for supporting the piece of material in the curled or rolled up configuration around the mandrel ; and at least one retainer arranged to retain the piece of material in the rolled or curled up configuration during insertion. (a) providing at least one piece of material to be applied to the internal wall of the wellbore conduit, the piece of material having a thickness (T) in the range of 0.10 to 0.40 mm; (b) applying adhesive onto the piece of material , thereafter rolling up or curling up the piece of material with the adhesive applied thereupon, and providing the curled or rolled up piece of material on an inserter tool ; (c) inserting the inserter tool with the rolled or curled up piece of material into the conduit and running the inserter tool into the conduit to position the curled or rolled up material therein; and (d) releasing the piece of material from the inserter tool , in order to let the piece of material to at least partially uncurl or unroll, allowing the inserted piece of material to at least partially uncurl or unroll inside the conduit, utilising the adhesive to secure the piece of material in place, so as to apply the material and obtain a laminate which lines said part of the internal wall of the conduit; a mandrel for supporting the piece of material in the curled or rolled up configuration around the mandrel ; and at least one retainer arranged to retain the piece of material in the rolled or curled up configuration during insertion.
A bung for drug containing cartridges for use in drug delivery devices wherein the bung has a distal end face , a proximal end face and a lateral area , wherein the bung comprises at least two different materials, a first material covering the whole lateral area of the bung and a second material which is at least partly arranged inside the bung , wherein the first material comprises rubber and has a larger compressibility than the second material , characterised in that the whole lateral area has a flat surface, wherein the distal end face of the bung has a flat surface, wherein the first material covers the distal end face of the bung , and wherein the first material has a constant and thin layer thickness at the distal end face of the bung.
A bandwidth information notification method, wherein the method comprises: obtaining , by a network node, a current bandwidth value of a microwave link; sending periodically, by the network node, the current bandwidth value of the microwave link to an endpoint of a service connection through the service connection which passes through the microwave link; wherein a bandwidth of the microwave link is different in different modulation modes, and the bandwidth of the microwave link in each modulation mode is determinate. obtaining , by a network node, a current bandwidth value of a microwave link; sending periodically, by the network node, the current bandwidth value of the microwave link to an endpoint of a service connection through the service connection which passes through the microwave link; wherein a bandwidth of the microwave link is different in different modulation modes, and the bandwidth of the microwave link in each modulation mode is determinate.
A fuel cell system comprising: a reformer configured to reform raw fuel to generate reformed gas; a solid-oxide fuel cell configured to generate electric power by a reaction between the reformed gas and air; a fuel collecting portion provided adjacent to the solid-oxide fuel cell , the reformed gas remaining after the reaction of the solid-oxide fuel cell being collected at the fuel collecting portion ; an airflow-through portion formed along an outer periphery of the fuel collecting portion ; a combustor configured to mix the reformed gas discharged from a fuel jetting opening of the fuel collecting portion with the air flowing through the air flow-through portion , to combust the reformed gas; and a covering body provided so as to block flow of the air in a direction from the air flow-through portion toward the combustor along the reformer , wherein: the reformer reforms the raw fuel using combustion heat of the combustor ; and the covering body supplies the air toward the fuel jetting opening of the fuel collecting portion . a reformer configured to reform raw fuel to generate reformed gas; a solid-oxide fuel cell configured to generate electric power by a reaction between the reformed gas and air; a fuel collecting portion provided adjacent to the solid-oxide fuel cell , the reformed gas remaining after the reaction of the solid-oxide fuel cell being collected at the fuel collecting portion ; an airflow-through portion formed along an outer periphery of the fuel collecting portion ; a combustor configured to mix the reformed gas discharged from a fuel jetting opening of the fuel collecting portion with the air flowing through the air flow-through portion , to combust the reformed gas; and a covering body provided so as to block flow of the air in a direction from the air flow-through portion toward the combustor along the reformer , wherein: the reformer reforms the raw fuel using combustion heat of the combustor ; and the covering body supplies the air toward the fuel jetting opening of the fuel collecting portion . the reformer reforms the raw fuel using combustion heat of the combustor ; and the covering body supplies the air toward the fuel jetting opening of the fuel collecting portion .
A method for radio link control, RLC, transmission, comprising: receiving a first RLC protocol data unit, PDU, set from a sending-side RLC entity, wherein the first RLC PDU set is generated by the sending-side RLC entity according to a raw data segment; responsive to detecting that multiple RLC PDUs in the first RLC PDU set are not successfully received, sending a status report containing an indication domain for sequence numbers, SNs, of the multiple RLC PDUs; receiving a second RLC PDU set from the sending-side RLC entity; and acquiring the raw data segment according to the first RLC PDU set and the second RLC PDU set; characterized in that the multiple RLC PDUs comprise at least one discontinuous RLC PDU; the indication domain for the SNs of the multiple RLC PDUs is a bitmap domain; the status report further comprises one control PDU type, CPT, domain and one NACK_SN domain; and the CPT domain is used to indicate that the status report comprises the bitmap domains, the NACK SN domain is used to indicate a maximum or minimum SN in the multiple RLC PDUs, the bitmap domains comprise M bits, the M bits correspond to M continuous RLC PDUs, the M RLC PDUs and the RLC PDU indicated by the NACK_SN domain at least comprise the multiple RLC PDUs, each bit is used to indicate whether a corresponding RLC PDU is successfully received, and the RLC PDU indicated by the NACK_SN domain is adjacent to the M RLC PDUs, M is a positive integer. receiving a first RLC protocol data unit, PDU, set from a sending-side RLC entity, wherein the first RLC PDU set is generated by the sending-side RLC entity according to a raw data segment; responsive to detecting that multiple RLC PDUs in the first RLC PDU set are not successfully received, sending a status report containing an indication domain for sequence numbers, SNs, of the multiple RLC PDUs; receiving a second RLC PDU set from the sending-side RLC entity; and acquiring the raw data segment according to the first RLC PDU set and the second RLC PDU set; characterized in that the multiple RLC PDUs comprise at least one discontinuous RLC PDU; the indication domain for the SNs of the multiple RLC PDUs is a bitmap domain; the status report further comprises one control PDU type, CPT, domain and one NACK_SN domain; and the CPT domain is used to indicate that the status report comprises the bitmap domains, the NACK SN domain is used to indicate a maximum or minimum SN in the multiple RLC PDUs, the bitmap domains comprise M bits, the M bits correspond to M continuous RLC PDUs, the M RLC PDUs and the RLC PDU indicated by the NACK_SN domain at least comprise the multiple RLC PDUs, each bit is used to indicate whether a corresponding RLC PDU is successfully received, and the RLC PDU indicated by the NACK_SN domain is adjacent to the M RLC PDUs, M is a positive integer.
Method for generating a setpoint trajectory (Δ p p plan ) which satisfies predetermined limitations for a hydraulic machine with an actuator for influencing an output variable (Δ p p ) of the hydraulic machine , wherein a trajectory of unlimited setpoints (Δ p p des ) is supplied to a trajectory planning function , which generates the setpoint trajectory (Δ p p plan ) from the trajectory of unlimited setpoints (Δ p p des ), wherein in the trajectory planning the trajectory of unlimited setpoints (Δ p p des ) is differentiated at least n times in order to obtain an n-times differentiated trajectory ( z ·· ref ) of unlimited setpoints with n ≥ 2, wherein in the trajectory planning at least one limitation is applied to the n-times differentiated trajectory ( z ·· ref ) of unlimited setpoints in order to obtain an n-times differentiated trajectory (γ Lim ) of limited setpoints, and the n-times differentiated trajectory (γ Lim ) of limited setpoints is supplied to a filter integrator chain to obtain the setpoint trajectory (Δ p p plan ), characterized in that the at least one limitation includes a limitation as a function of a control range of the actuator. wherein a trajectory of unlimited setpoints (Δ p p des ) is supplied to a trajectory planning function , which generates the setpoint trajectory (Δ p p plan ) from the trajectory of unlimited setpoints (Δ p p des ), wherein in the trajectory planning the trajectory of unlimited setpoints (Δ p p des ) is differentiated at least n times in order to obtain an n-times differentiated trajectory ( z ·· ref ) of unlimited setpoints with n ≥ 2, wherein in the trajectory planning at least one limitation is applied to the n-times differentiated trajectory ( z ·· ref ) of unlimited setpoints in order to obtain an n-times differentiated trajectory (γ Lim ) of limited setpoints, and the n-times differentiated trajectory (γ Lim ) of limited setpoints is supplied to a filter integrator chain to obtain the setpoint trajectory (Δ p p plan ), characterized in that the at least one limitation includes a limitation as a function of a control range of the actuator.
A protease nexin-1 expression or activity inhibitor for use in the prevention or treatment of mild or moderate haemophilia A in a subject in need thereof, wherein the protease nexin-1 activity inhibitor is an anti-protease nexin-1 neutralizing antibody, and wherein the protein nexin-1 expression inhibitor is an antisense oligonucleotides or a siRNA to directly block the translation of protease nexin-1 mRNA.
A decorative part for a vehicle, arranged to be mounted on a steering wheel of the vehicle, comprising: - a decorative rim produced from a decorative material such as wood, - a protective portion for protecting the decorative rim , made from a transparent or translucent material covering at least a part of a surface of the decorative rim arranged to be visible to a user, - an attachment portion arranged to attach the decorative part on the steering wheel, characterised in that the attachment portion is produced from the same transparent or translucent material as the protective portion . - a decorative rim produced from a decorative material such as wood, - a protective portion for protecting the decorative rim , made from a transparent or translucent material covering at least a part of a surface of the decorative rim arranged to be visible to a user, - an attachment portion arranged to attach the decorative part on the steering wheel,