mhurhangee/patent-ind-claim-en huggingface dataset:
A method for transmitting media data, by a sending entity, in a MPEG Media Transport, MMT, system, the method comprising: identifying at least one media processing unit, MPU, each of the at least one MPU including at least one media fragment unit, MFU; configuring a payload including media data of a first MFU of the at least one MFU; and transmitting a packet including the configured payload to a receiving entity, wherein, in case that the media data of the first MFU is timed media data, the payload includes sample number information indicating a sample number of a sample to which the media data of the first MFU belongs, and offset information indicating an offset of the media data of the first MFU in the sample, and wherein a respective MFU comprises, in a MFU header, a hint sample of a MMT hint track related to media data of a corresponding MFU, the hint sample including sequence number information indicating a sequence number of the corresponding MFU. identifying at least one media processing unit, MPU, each of the at least one MPU including at least one media fragment unit, MFU; configuring a payload including media data of a first MFU of the at least one MFU; and transmitting a packet including the configured payload to a receiving entity, wherein, in case that the media data of the first MFU is timed media data, the payload includes sample number information indicating a sample number of a sample to which the media data of the first MFU belongs, and offset information indicating an offset of the media data of the first MFU in the sample, and wherein a respective MFU comprises, in a MFU header, a hint sample of a MMT hint track related to media data of a corresponding MFU, the hint sample including sequence number information indicating a sequence number of the corresponding MFU.
A digital to analog converter, DAC, the DAC comprising: M DAC cores in parallel, wherein: M is an integer greater or equal to 4; each DAC core is configured to convert a digital input signal to an analog output signal; and the same input digital word is provided as the digital input signal to each of the plurality of DAC cores in parallel; and a cascode stage comprising M parallel cascodes directly connected to respective outputs of the M DAC cores in parallel for combining the outputs of the M DAC cores in parallel to provide an aggregate analog output, characterised in that ; the M DAC cores in parallel are formed on a first IC die using any one or more of the following: complementary metal-oxide-semiconductor, CMOS technology, bipolar-complementary metal-oxide-semiconductor, BiCMOS, and silicon-on-insulator, SOI; and the cascode stage comprises Gallium Arsenide, GaAs cascodes and/or Gallium Nitride, GaN cascodes formed on a second IC die, the first and second IC dies being included in a multi-chip module. M DAC cores in parallel, wherein: M is an integer greater or equal to 4; each DAC core is configured to convert a digital input signal to an analog output signal; and the same input digital word is provided as the digital input signal to each of the plurality of DAC cores in parallel; and M is an integer greater or equal to 4; each DAC core is configured to convert a digital input signal to an analog output signal; and the same input digital word is provided as the digital input signal to each of the plurality of DAC cores in parallel; and a cascode stage comprising M parallel cascodes directly connected to respective outputs of the M DAC cores in parallel for combining the outputs of the M DAC cores in parallel to provide an aggregate analog output, characterised in that ; the M DAC cores in parallel are formed on a first IC die using any one or more of the following: complementary metal-oxide-semiconductor, CMOS technology, bipolar-complementary metal-oxide-semiconductor, BiCMOS, and silicon-on-insulator, SOI; and the cascode stage comprises Gallium Arsenide, GaAs cascodes and/or Gallium Nitride, GaN cascodes formed on a second IC die, the first and second IC dies being included in a multi-chip module.
A quick-change starwheel guide assembly structured to be coupled to a starwheel guide assembly mounting base , said quick-change starwheel guide assembly comprising: a starwheel guide assembly mounting assembly ; a starwheel guide assembly support assembly ; a number of starwheel guide assembly guiderails ; and a starwheel guide assembly can body height adjustment assembly ; wherein at least one of said starwheel guide assembly mounting assembly or said can body height adjustment assembly is a quick-change assembly; characterized in that said starwheel guide assembly mounting assembly includes a body ; said starwheel guide assembly mounting assembly body defines a single active coupling passage ; and said starwheel guide assembly mounting assembly body single active coupling passage is structured to be coupled to a single starwheel guide assembly mounting base retained coupling . a starwheel guide assembly mounting assembly ; a starwheel guide assembly support assembly ; a number of starwheel guide assembly guiderails ; and a starwheel guide assembly can body height adjustment assembly ; wherein at least one of said starwheel guide assembly mounting assembly or said can body height adjustment assembly is a quick-change assembly; characterized in that said starwheel guide assembly mounting assembly includes a body ; said starwheel guide assembly mounting assembly body defines a single active coupling passage ; and said starwheel guide assembly mounting assembly body single active coupling passage is structured to be coupled to a single starwheel guide assembly mounting base retained coupling .
An information processing method, wherein the method is applied to a network access stratum device, a persistent connection is maintained between the network access stratum device and a terminal device, and a short-term connection is maintained between the network access stratum device and a message forwarding device; the method comprising: receiving (S102) an uplink message sent by the terminal device; encapsulating (S104) the uplink message and a session identifier of the persistent connection maintained between the network access stratum device and the terminal device into a target message corresponding to the short-term connection; sending (S106) the target message to the message forwarding device, and receiving a downlink message corresponding to the target message and sent by the message forwarding device, wherein the downlink message comprises the session identifier; determining (S108) a receiving device of the downlink message based on the session identifier; and sending (S110) the downlink message to the determined receiving device that is the terminal device corresponding to the session identifier. receiving (S102) an uplink message sent by the terminal device; encapsulating (S104) the uplink message and a session identifier of the persistent connection maintained between the network access stratum device and the terminal device into a target message corresponding to the short-term connection; sending (S106) the target message to the message forwarding device, and receiving a downlink message corresponding to the target message and sent by the message forwarding device, wherein the downlink message comprises the session identifier; determining (S108) a receiving device of the downlink message based on the session identifier; and sending (S110) the downlink message to the determined receiving device that is the terminal device corresponding to the session identifier.
A robotic system , comprising: a plurality of tele-presence robots that each have a camera , a monitor , a speaker and a microphone ; a remote control station having a camera , a monitor , a speaker and a microphone , wherein said remote control station is coupled to said plurality of tele-presence robots over a network ; said remote control station monitor comprising a display user interface that is configured to display a robot view field displaying video images captured by the cameras of said tele-presence robots; and characterised in that each of said plurality of tele-presence robots has at least one robot feature that is unique to that robot, said feature being selected from a group consisting of mobile platform , laser pointer a projector and medical instrument that is connected to said robot; wherein the remote control station is configured such that, when the remote control station accesses one of said plurality of tele-presence robots, said remote control station receives information that identifies said at least one robot feature of said accessed tele-presence robot; and wherein the display user interface is configured to display at least one field that corresponds to each of said at least one identified robot feature and facilitate operation of said feature, whereby selection of said at least one field to be displayed is determined by the information received from said accessed tele-presence robot by the remote control station. a plurality of tele-presence robots that each have a camera , a monitor , a speaker and a microphone ; a remote control station having a camera , a monitor , a speaker and a microphone , wherein said remote control station is coupled to said plurality of tele-presence robots over a network ; said remote control station monitor comprising a display user interface that is configured to display a robot view field displaying video images captured by the cameras of said tele-presence robots; and characterised in that each of said plurality of tele-presence robots has at least one robot feature that is unique to that robot, said feature being selected from a group consisting of mobile platform , laser pointer a projector and medical instrument that is connected to said robot; wherein the remote control station is configured such that, when the remote control station accesses one of said plurality of tele-presence robots, said remote control station receives information that identifies said at least one robot feature of said accessed tele-presence robot; and wherein the display user interface is configured to display at least one field that corresponds to each of said at least one identified robot feature and facilitate operation of said feature, whereby selection of said at least one field to be displayed is determined by the information received from said accessed tele-presence robot by the remote control station.
A computer-implemented method for performing secure backup operations, at least a portion of the method being performed by a computing device comprising at least one processor, the method comprising: identifying a plurality of backup servers with heterogeneous computing environments that provide backup services for at least one backup client; determining, for each of the plurality of backup servers, a trust level of the backup server by identifying at least one security characteristic of the backup server; selecting, for each of the plurality of backup servers and from multiple types of signed certificates with various security levels, a type of signed certificate that, when deployed on the backup server, enables the backup server to perform backup operations with a security level that corresponds to the trust level of the backup server; deploying, on each of the plurality of backup servers, a signed certificate of the type selected for the backup server; and performing secure backup operations for the backup client by: identifying a sensitivity level of a backup task to be performed; and assigning the backup task to at least one backup server within the plurality of backup servers that has a signed certificate with a security level appropriate for the sensitivity level of the backup task. identifying a plurality of backup servers with heterogeneous computing environments that provide backup services for at least one backup client; determining, for each of the plurality of backup servers, a trust level of the backup server by identifying at least one security characteristic of the backup server; selecting, for each of the plurality of backup servers and from multiple types of signed certificates with various security levels, a type of signed certificate that, when deployed on the backup server, enables the backup server to perform backup operations with a security level that corresponds to the trust level of the backup server; deploying, on each of the plurality of backup servers, a signed certificate of the type selected for the backup server; and performing secure backup operations for the backup client by: identifying a sensitivity level of a backup task to be performed; and assigning the backup task to at least one backup server within the plurality of backup servers that has a signed certificate with a security level appropriate for the sensitivity level of the backup task. identifying a sensitivity level of a backup task to be performed; and assigning the backup task to at least one backup server within the plurality of backup servers that has a signed certificate with a security level appropriate for the sensitivity level of the backup task.
Device for heating and emulsifying beverages comprising a pump , an air and water meeting zone , a device for producing steam and a first conduit for steam mixed with air communicating with a steam wand adapted to be immersed in a beverage to be heated and emulsified, said meeting zone being positioned before said device for producing steam, characterized in that said device for producing steam comprises an instant steam generator .
Piston pump for a high-pressure cleaning appliance, comprising a plurality of pump chambers into each of which one piston which is movable back and forth plunges, and which are each in flow connection via a suction valve with a suction inlet and via a pressure valve with a pressure outlet , the pistons each being surrounded by a sealing ring which is supported in the radial direction by a ring wall and in the axial direction by a support ring , characterized in that the piston pump comprises a one-piece support shield which forms the support rings and surrounds the ring walls in the circumferential direction.
A method of isotope ratio mass spectrometry, comprising: injecting a sample for analysis into a gas chromatography column ; directing an effluent from the gas chromatography column to a switching arrangement; and selecting a configuration of the switching arrangement, such that: in a first mode, the effluent from the gas chromatography column is provided as an input to a peak broadener ; and in a second mode, an effluent from the peak broadener is provided to a mass spectrometer for isotope ratio mass spectrometry without the effluent from the gas chromatography column being provided as an input to the peak broadener ; and characterized in that the step of selecting the configuration of the switching arrangement comprises, in the second mode, providing a buffer gas as an input to the peak broadener . injecting a sample for analysis into a gas chromatography column ; directing an effluent from the gas chromatography column to a switching arrangement; and selecting a configuration of the switching arrangement, such that: in a first mode, the effluent from the gas chromatography column is provided as an input to a peak broadener ; and in a second mode, an effluent from the peak broadener is provided to a mass spectrometer for isotope ratio mass spectrometry without the effluent from the gas chromatography column being provided as an input to the peak broadener ; and characterized in that the step of selecting the configuration of the switching arrangement comprises, in the second mode, providing a buffer gas as an input to the peak broadener .
Method for diagnosing malfunction of a sensor, the method comprising a step of comparing object-detection data delivered by the sensor in a geographical region with map data corresponding to said region, the method being characterized in that , if the detection data and the map data are inconsistent, and in particular if objects detected by the sensor are not represented in the map or if objects represented in the map are not detected by the sensor, then the method further comprises: - a step of verifying whether or not an object has been detected in said region by other sensors; - if no object has been detected in the region by other sensors, a step of assigning an index of confidence to the detection data. - a step of verifying whether or not an object has been detected in said region by other sensors; - if no object has been detected in the region by other sensors, a step of assigning an index of confidence to the detection data.
An electrode structure comprising a substrate and a sintered body , wherein the sintered body is formed on the surface of the substrate , wherein the sintered body is provided with cracks that are formed by rolling with a round rod after a hydration treatment of the sintered body and before a formation process of the sintered body , and the cracks penetrate both ends of the electrode structure.
A system that enforces a security policy in a message-based operating system , the system comprising a processor configured to: control access to an operating system authenticator in response to an invocation of a microkernel call that initiates a process manager function, the process manager function granting access rights retained in a microkernel ; and control access to a server serving a client in the message-based operating system according to a token issued by the operating system authenticator , the token establishing the client's access to the services provided by the server. control access to an operating system authenticator in response to an invocation of a microkernel call that initiates a process manager function, the process manager function granting access rights retained in a microkernel ; and control access to a server serving a client in the message-based operating system according to a token issued by the operating system authenticator , the token establishing the client's access to the services provided by the server.
A hybrid propulsion vertical take-off and landing (VTOL) aerial vehicle comprising: a fuselage ; an engine operatively coupled with one or more generators to generate electric power, the engine and the one or more generators being positioned within the fuselage ; a primary wing set comprising two primary wings, the primary wing set having a first plurality of integrated ducted fans to collectively generate a first aggregate thrust, each of said first plurality of integrated ducted fans driven by an electric fan motor operatively coupled with at least one of said one or more generators , wherein the first plurality of integrated ducted fans includes a plurality of immediately adjacent integrated ducted fans across the wingspan of each of the two primary wings; and a canard wing set comprising two canard wings, the canard wing set having a second plurality of integrated ducted fans to collectively generate a second aggregate thrust, each of said second plurality of integrated ducted fans driven by an electric fan motor operatively coupled with at least one of said one or more generators , wherein the second plurality of integrated ducted fans includes a plurality of immediately adjacent integrated ducted fans across the wingspan of each of the two canard wings, wherein the hybrid propulsion VTOL aerial vehicle is operable in a hover mode and a horizontal flight mode, wherein each of the canard wing set and the primary wing set is configured to transition between a vertical wing configuration in the hover mode and a horizontal wing configuration in the horizontal flight mode. a fuselage ; an engine operatively coupled with one or more generators to generate electric power, the engine and the one or more generators being positioned within the fuselage ; a primary wing set comprising two primary wings, the primary wing set having a first plurality of integrated ducted fans to collectively generate a first aggregate thrust, each of said first plurality of integrated ducted fans driven by an electric fan motor operatively coupled with at least one of said one or more generators , wherein the first plurality of integrated ducted fans includes a plurality of immediately adjacent integrated ducted fans across the wingspan of each of the two primary wings; and a canard wing set comprising two canard wings, the canard wing set having a second plurality of integrated ducted fans to collectively generate a second aggregate thrust, each of said second plurality of integrated ducted fans driven by an electric fan motor operatively coupled with at least one of said one or more generators , wherein the second plurality of integrated ducted fans includes a plurality of immediately adjacent integrated ducted fans across the wingspan of each of the two canard wings, wherein the hybrid propulsion VTOL aerial vehicle is operable in a hover mode and a horizontal flight mode, wherein each of the canard wing set and the primary wing set is configured to transition between a vertical wing configuration in the hover mode and a horizontal wing configuration in the horizontal flight mode.
A component supply device comprising: a component support section configured to support multiple components in a scattered state on a support surface of the component support section ; a component housing apparatus configured to house the components and to discharge the components from a discharge section towards the support surface of the component support section ; characterized by: a mounting section on which the component housing apparatus is removably mounted, wherein the component housing apparatus includes a housing section configured to house the components, and a conveyor belt configured to demarcate the housing section and the discharge section and arranged extending from the housing section diagonally upwards to a side on which the discharge section is provided, and the components housed in the housing section are discharged from the discharge section towards the support surface of the component support section by being conveyed by the conveyor belt . a component support section configured to support multiple components in a scattered state on a support surface of the component support section ; a component housing apparatus configured to house the components and to discharge the components from a discharge section towards the support surface of the component support section ; a mounting section on which the component housing apparatus is removably mounted, wherein the component housing apparatus includes a housing section configured to house the components, and a conveyor belt configured to demarcate the housing section and the discharge section and arranged extending from the housing section diagonally upwards to a side on which the discharge section is provided, and a housing section configured to house the components, and a conveyor belt configured to demarcate the housing section and the discharge section and arranged extending from the housing section diagonally upwards to a side on which the discharge section is provided, and the components housed in the housing section are discharged from the discharge section towards the support surface of the component support section by being conveyed by the conveyor belt .