mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a wireless communication device for Random Access, RA, comprising: transmitting (S301) a preamble on Physical Random Access Channel, PRACH; receiving (S302) a Random Access Response, RAR, message; transmitting (S303), on Physical Uplink Shared Channel, PUSCH, a message for terminal identification, wherein the time resource allocation of the message for terminal identification has a timing offset to the time resource allocation of another message to be transmitted on the PUSCH, the timing offset being dependent on the numerology used and being in a predefined table or a configured table, wherein there is one timing offset for one numerology and the predefined table or the configured table is: Numerology 0 1 2 3 offset in unit of slot 2 2 4 5 transmitting (S301) a preamble on Physical Random Access Channel, PRACH; receiving (S302) a Random Access Response, RAR, message; transmitting (S303), on Physical Uplink Shared Channel, PUSCH, a message for terminal identification, wherein the time resource allocation of the message for terminal identification has a timing offset to the time resource allocation of another message to be transmitted on the PUSCH, the timing offset being dependent on the numerology used and being in a predefined table or a configured table, wherein there is one timing offset for one numerology and the predefined table or the configured table is: Numerology 0 1 2 3 offset in unit of slot 2 2 4 5
A method of manufacturing an optical component configured to be part of a luminaire by means of fused deposition modeling using a 3-D printing apparatus, wherein the 3-D printing apparatus comprises: an extruder nozzle , and a filament feeder for feeding a preformed core-shell filament having a core of a first material and a shell of a second material through the extruder nozzle, or a plurality of filament feeders including a first filament feeder for feeding a first filament comprising the first material through the extruder nozzle and a second filament feeder for feeding a second filament comprising the second material through the extruder nozzle; and wherein the method comprises the step of: 3-D printing a stack of layers with the 3-D printing apparatus by feeding the preformed core-shell filament or the first filament and the second filament through the extruder nozzle such that molten second material surrounds the molten first material to form the optical component, wherein at least some of the layers of the optical component comprise a core portion made of the first material and a shell portion enveloping the core portion made of the second material, the first material having a different light transmissivity to the second material, the second material having an optical transmission of more than 90% excluding surface reflections, and the first material being one of a diffusely reflective material, an absorbent material and a coloured material. an extruder nozzle , and a filament feeder for feeding a preformed core-shell filament having a core of a first material and a shell of a second material through the extruder nozzle, or a plurality of filament feeders including a first filament feeder for feeding a first filament comprising the first material through the extruder nozzle and a second filament feeder for feeding a second filament comprising the second material through the extruder nozzle; and wherein the method comprises the step of: 3-D printing a stack of layers with the 3-D printing apparatus by feeding the preformed core-shell filament or the first filament and the second filament through the extruder nozzle such that molten second material surrounds the molten first material to form the optical component, wherein at least some of the layers of the optical component comprise a core portion made of the first material and a shell portion enveloping the core portion made of the second material, the first material having a different light transmissivity to the second material, the second material having an optical transmission of more than 90% excluding surface reflections, and the first material being one of a diffusely reflective material, an absorbent material and a coloured material.
A method for the production of highly pure platinum, characterised by - producing a mixture comprising a nitrogen-containing hexahalogenoplatinate and water in the form of a suspension of a nitrogen-containing hexahalogenoplatinate and water, wherein the resulting mixture has a pH value of 0 to 4 or setting a pH value of 0 to 4, and wherein the nitrogen-containing hexahalogenoplatinate is produced in that a solution of a dihydrogen hexahalogenoplatinate is converted into ammonium hexahalogenoplatinate in the presence of ammonium chloride, and wherein the solution of the dihydrogen hexahalogenoplatinate is produced in that a dissolved hexahalogenoplatinate is brought into contact with an acidic ion exchanger, - heating the mixture to a temperature of greater than or equal to 30°C, - carrying out a reduction by adding a reducing agent to precipitate platinum in the form of a platinum sponge, further characterised in that the pH value lies between 0 to 4 during the reduction, and that hydrazine, hydrazine hydrate, ascorbic acid, formic acid, or oxalic acid is used as reducing agent, or hydroquinones are used, or hydroquinones are used in a composition with one of the reducing agents hydrazine, hydrazine hydrate, ascorbic acid, formic acid, or oxalic acid. - producing a mixture comprising a nitrogen-containing hexahalogenoplatinate and water in the form of a suspension of a nitrogen-containing hexahalogenoplatinate and water, wherein the resulting mixture has a pH value of 0 to 4 or setting a pH value of 0 to 4, and wherein the nitrogen-containing hexahalogenoplatinate is produced in that a solution of a dihydrogen hexahalogenoplatinate is converted into ammonium hexahalogenoplatinate in the presence of ammonium chloride, and wherein the solution of the dihydrogen hexahalogenoplatinate is produced in that a dissolved hexahalogenoplatinate is brought into contact with an acidic ion exchanger, - heating the mixture to a temperature of greater than or equal to 30°C, - carrying out a reduction by adding a reducing agent to precipitate platinum in the form of a platinum sponge, further characterised in that the pH value lies between 0 to 4 during the reduction, and that hydrazine, hydrazine hydrate, ascorbic acid, formic acid, or oxalic acid is used as reducing agent, or hydroquinones are used, or hydroquinones are used in a composition with one of the reducing agents hydrazine, hydrazine hydrate, ascorbic acid, formic acid, or oxalic acid.
Agricultural harvesting machine comprising a harvesting unit and an auxiliary drive train which is branched off from at least one drive train of the harvesting machine and drives the harvesting unit , the auxiliary drive train comprising a belt drive having a drive pulley and a driven pulley and having a belt , and the belt drive being provided with an overload protection means which has a tensioning device for tensioning the belt and a controller which controls the tensioning device and has a device for slip detection, characterised in that the auxiliary drive train has a further overload protection means which mechanically separates the harvesting unit from the drive train if a predeterminable maximum torque is exceeded, the controller being designed to detect a switching process of the mechanically separating further overload protection means , which process separates the harvesting unit from the drive train , if the slip determined by the device for slip detection exceeds a first predefined value.
A composition for application to a metal substrate, the composition comprising: an aqueous carrier; a hydroxide anion; a phosphate anion, wherein the phosphate is present in an amount of 70g / 1000 g solution to 90 g / 1000 g solution; and a corrosion inhibitor comprising an azole compound, a rare earth ion, an alkaline earth metal ion, a Li ion, a Na ion, a K ion, a Rb ion, a Cs ion, a Fr ion, and/or a transition metal ion. an aqueous carrier; a hydroxide anion; a phosphate anion, wherein the phosphate is present in an amount of 70g / 1000 g solution to 90 g / 1000 g solution; and a corrosion inhibitor comprising an azole compound, a rare earth ion, an alkaline earth metal ion, a Li ion, a Na ion, a K ion, a Rb ion, a Cs ion, a Fr ion, and/or a transition metal ion.
A camera module, comprising: an image sensor comprising multiple photosensitive pixels; a diffraction structure covering only a part of the multiple photosensitive pixels and configured to disperse incident rays irradiating to the part of the multiple photosensitive pixels into diffraction rays with different phases incident to one or more of the part of the multiple photosensitive pixels; and a signal processor configured to acquire a first sensing signal corresponding to a photosensitive pixel not covered by the diffraction structure for generating a 2D image, and acquire a second sensing signal corresponding to the diffraction rays for generating 3D information; wherein the diffraction structure comprises a plurality of diffraction regions , and each diffraction region covers one or more photosensitive pixels; and wherein the multiple photosensitive pixels constitute a photosensitive pixel array, and the plurality of diffraction regions are uniformly distributed above the photosensitive pixel array. an image sensor comprising multiple photosensitive pixels; a diffraction structure covering only a part of the multiple photosensitive pixels and configured to disperse incident rays irradiating to the part of the multiple photosensitive pixels into diffraction rays with different phases incident to one or more of the part of the multiple photosensitive pixels; and a signal processor configured to acquire a first sensing signal corresponding to a photosensitive pixel not covered by the diffraction structure for generating a 2D image, and acquire a second sensing signal corresponding to the diffraction rays for generating 3D information; wherein the diffraction structure comprises a plurality of diffraction regions , and each diffraction region covers one or more photosensitive pixels; and wherein the multiple photosensitive pixels constitute a photosensitive pixel array, and the plurality of diffraction regions are uniformly distributed above the photosensitive pixel array.
A computer-implemented method of recovering a registry comprising the steps of: receiving zone data from the registry ; archiving the zone data into a data repository ; in an event of failure of the registry , publishing the zone data into a managed DNS service, wherein the managed DNS service is configured to electronically accept zone updates from an authorized user via an electronic interface, wherein the authorized user is not the zone owner and the managed DNS service is further configured to extract the zone data into a format suitable for a managed DNS nameserver, wherein the managed DNS nameserver is active for a TLD; obtaining reconciled ownership data comprising information on the ownership of the zone data, wherein the reconciliation of ownership data is based at least on escrow data , WHOIS data , or survey data; launching a provisioning DNS service, wherein the provisioning DNS service is configured to electronically accept zone updates from the zone owner via an electronic interface, and wherein the provisioning DNS service is a separate service from the managed DNS service; and transitioning from the managed DNS service to the provisioning DNS service, wherein the zone data and reconciled ownership data is extracted into the provisioning DNS service. receiving zone data from the registry ; archiving the zone data into a data repository ; in an event of failure of the registry , publishing the zone data into a managed DNS service, wherein the managed DNS service is configured to electronically accept zone updates from an authorized user via an electronic interface, wherein the authorized user is not the zone owner and the managed DNS service is further configured to extract the zone data into a format suitable for a managed DNS nameserver, wherein the managed DNS nameserver is active for a TLD; obtaining reconciled ownership data comprising information on the ownership of the zone data, wherein the reconciliation of ownership data is based at least on escrow data , WHOIS data , or survey data; launching a provisioning DNS service, wherein the provisioning DNS service is configured to electronically accept zone updates from the zone owner via an electronic interface, and wherein the provisioning DNS service is a separate service from the managed DNS service; and transitioning from the managed DNS service to the provisioning DNS service, wherein the zone data and reconciled ownership data is extracted into the provisioning DNS service.
A plasmid coding for an IL-12 immunostimulatory cytokine for use in a method of treating a subject having a cancerous tumor, the method comprising: a) injecting the cancerous tumor with an effective dose of the plasmid; b) administering electroporation therapy to the tumor; and c) administering an effective dose of a PD-1 or PD-L1 antagonist to the subject. a) injecting the cancerous tumor with an effective dose of the plasmid; b) administering electroporation therapy to the tumor; and c) administering an effective dose of a PD-1 or PD-L1 antagonist to the subject.
A sensor system for monitoring a property , the system comprising: a primary sensor unit , comprising: a housing comprising an interface mechanism for positioning at least one sensor contained within or supported by the housing relative to an entity to be passively monitored by the primary sensor unit , wherein the entity to be monitored comprises a measurable characteristic that changes over time, wherein the interface mechanism comprises a portion of the housing or an additional component that maintains the positioning of the housing relative to a resource exhibiting the measurable characteristic, to passively monitor the measurable characteristic without requiring a physical alteration to the entity to be monitored; at least one transceiver connectable to: i) a cloud-based system via a long-range communication connection , and ii) at least one other sensor unit in the monitored property , to allow the at least one other sensor unit to provide data to the cloud-based system via the primary sensor unit ; a processor and memory contained in the housing for operating the at least one transceiver and the at least one sensor to: passively measure or obtain data from the monitored entity, receive data from the at least one other sensor unit , and provide the data from the monitored entity and the data from the at least one other unit to the cloud-based system over the long-range communication connection ; and a power source for providing electrical power to the primary sensor unit . a housing comprising an interface mechanism for positioning at least one sensor contained within or supported by the housing relative to an entity to be passively monitored by the primary sensor unit , wherein the entity to be monitored comprises a measurable characteristic that changes over time, wherein the interface mechanism comprises a portion of the housing or an additional component that maintains the positioning of the housing relative to a resource exhibiting the measurable characteristic, to passively monitor the measurable characteristic without requiring a physical alteration to the entity to be monitored; at least one transceiver connectable to: i) a cloud-based system via a long-range communication connection , and ii) at least one other sensor unit in the monitored property , to allow the at least one other sensor unit to provide data to the cloud-based system via the primary sensor unit ; a processor and memory contained in the housing for operating the at least one transceiver and the at least one sensor to: passively measure or obtain data from the monitored entity, receive data from the at least one other sensor unit , and provide the data from the monitored entity and the data from the at least one other unit to the cloud-based system over the long-range communication connection ; and a power source for providing electrical power to the primary sensor unit .
Joining device for joining a trailing end of a first strip to a leading end of a second strip to form a tire component, wherein the joining device comprises a support member with a support surface for supporting the first strip and the second strip in a support plane (S) in a first strip position (P1) and a second strip position (P2), respectively, on opposite sides of a joining line (L) and a retaining member with a retaining surface for retaining the second strip in a retaining plane (R) extending above the support plane (S) at the second strip position (P1), wherein the retaining member is arranged for retaining the second strip to the retaining surface (R) with the leading end projecting from the retaining member towards the first strip position (P1) over a first projecting distance (D1) in a projecting direction (E) parallel to the retaining plane (R), wherein the joining device is arranged for positioning the leading end of the second strip in a joining orientation in which said leading end is closer to the support plane (S) than the rest of the second strip , characterized in that the joining device comprises a control unit for controlling a relative movement (M) between the support member and the retaining member , wherein the relative movement (M) comprises a first component (M1) in a placement direction (K) perpendicular to the support plane (S) to place the leading end of the second strip in the joining orientation in contact with the support plane (S) and a second component (M2) in a joining direction (J) transverse to the joining line (L) and parallel to the support plane (S) to bring the leading end of the second strip in the joining orientation into contact with the trailing end of the first strip .
A sterile injectable aqueous composition, sterilized with moist heat, in gel form, comprising at least cross-linked hyaluronic acid, or a salt thereof, and trehalose, characterized in that : ∘ the mass proportion of water is greater than 51% of the total mass ∘ the mass proportion in trehalose is greater than 0.001% of the total mass. ∘ the mass proportion of water is greater than 51% of the total mass ∘ the mass proportion in trehalose is greater than 0.001% of the total mass.
An improved atomizing electronic cigarette, comprising a housing having a power supply unit , an atomizing core component and a liquid storage component , an air facilitation inlet being arranged on the housing , one end of the housing being provided with an air suction port (a), wherein the air facilitation inlet and the air suction port (a) form an air circulation path, the atomizing core component comprises a liquid permeating component contacted with the liquid storage component to permeate liquid to the liquid permeating component , and an electric heater operable to atomize liquid in the liquid permeating component , wherein the liquid storage component internally has a channel through which the atomized gas flows, and the electric heater of the atomizing core component is directly inserted into the channel , characterized in that the liquid permeating component is sleeved on the electric heater , a through hole through which gas flows is arranged in the atomizing core component, and the through hole is made up of the structure of the electric heater .
A Slow Protocol packet processing method, wherein the method comprises: receiving by the network device, a first Slow Protocol packet, wherein the first Slow Protocol packet carries device information of the transmit end device of the first Slow Protocol packet; determining, by the network device, based on a port identifier of a port of the network device receiving the first Slow Protocol packet, that a negotiation process between the network device and a transmit end device is completed; querying , by the network device, based on the device information of the transmit end device carried in the first Slow Protocol packet and the port identifier of the port of the network device receiving the first Slow Protocol packet, whether the device information of the transmit end device of the first Slow Protocol packet and the respective port identifier match a device information and a port identifier of a port of the network device receiving a Slow Protocol negotiation packet stored by the network device in the negotiation process; and identifying , by the network device, the first Slow Protocol packet as a valid packet in response to a result that the device information of the transmit end device of the first Slow Protocol packet and the port identifier match the device information and the port identifier stored by the network device in the negotiation process. receiving by the network device, a first Slow Protocol packet, wherein the first Slow Protocol packet carries device information of the transmit end device of the first Slow Protocol packet; determining, by the network device, based on a port identifier of a port of the network device receiving the first Slow Protocol packet, that a negotiation process between the network device and a transmit end device is completed; querying , by the network device, based on the device information of the transmit end device carried in the first Slow Protocol packet and the port identifier of the port of the network device receiving the first Slow Protocol packet, whether the device information of the transmit end device of the first Slow Protocol packet and the respective port identifier match a device information and a port identifier of a port of the network device receiving a Slow Protocol negotiation packet stored by the network device in the negotiation process; and identifying , by the network device, the first Slow Protocol packet as a valid packet in response to a result that the device information of the transmit end device of the first Slow Protocol packet and the port identifier match the device information and the port identifier stored by the network device in the negotiation process.
An article comprising: a component ; a substrate comprising a first ceramic material; a joining layer between the component and the substrate, the joining layer comprises at least one of a braze or a weld; and a joint surface coating between the substrate and the joining layer; characterised in that the joint surface coating comprises: a diffusion barrier layer that is a second ceramic material that consists essentially of silicon carbide, and a compliance layer comprising at least one of a metal or a metalloid, wherein the compliance layer is between the diffusion barrier layer and the substrate. a component ; a substrate comprising a first ceramic material; a joining layer between the component and the substrate, the joining layer comprises at least one of a braze or a weld; and a joint surface coating between the substrate and the joining layer; characterised in that the joint surface coating comprises: a diffusion barrier layer that is a second ceramic material that consists essentially of silicon carbide, and a compliance layer comprising at least one of a metal or a metalloid, wherein the compliance layer is between the diffusion barrier layer and the substrate. a diffusion barrier layer that is a second ceramic material that consists essentially of silicon carbide, and a compliance layer comprising at least one of a metal or a metalloid, wherein the compliance layer is between the diffusion barrier layer and the substrate.