2343 results about "Active state" patented technology

An AI orchestration system dynamically manages multiple artificial intelligence (AI) agents within a cloud computing environment to efficiently process user requests. A model orchestration subsystem determines whether a request is handled locally using a domain-specific database or by invoking one or more AI agents. The system maintains AI agents in active and inactive states, provisioning computing resources for inactive agents as needed. Real-time model metrics guide the selection of target AI agents, and if a degrading performance trend is detected, the system preemptively spins up additional AI instances. The system provisions processor cycles, memory, and network bandwidth through a cloud-based resource manager, instantiates containerized execution environments or virtual machines, and performs automated load balancing among AI instances.

The invention discloses an immune cell state analysis method and system, and relates to the technical field of image processing. The method comprises the following steps: acquiring a motion image sequence of immune cells by using microscopic imaging equipment; performing edge detection on the motion image sequence, and marking contour pixel data labels of immune cells; performing trajectory tracking on the immune cells under a time sequence, and outputting motion trajectory pixel data; inputting the motion trail pixel data into a dynamic change rate recognition model, obtaining a first-order change rate, a second-order change rate and a change rate mean value, and generating a dynamic change feature embedding vector; inputting into an immune cell state prediction large model for state prediction to obtain an active state prediction index, and performing active labeling on the immune cells according to the active state prediction index. The technical problems of inaccurate analysis and incomplete prediction of the immune cell activity state in the prior art are solved, and the technical effect of improving the accuracy and comprehensiveness of immune cell activity state prediction is achieved.

The invention provides a COT step-down converter comprising an inductive current detection circuit configured to detect an inductive current flowing through an inductor connected to a system output of an output voltage of an output system of the COT step-down converter, and generate a current zero-crossing detection signal indicating whether the inductive current crosses zero, the inductive current zero-crossing means that the inductive current is changed from positive current to negative current; and a sleep mode control circuit configured to generate a sleep mode control signal for controlling one or more circuit modules in the COT buck converter to change from an operating state to a closed state based on the current zero-crossing detection signal, an output feedback voltage representing a system output voltage of the COT buck converter, and a predetermined reference voltage.

Methods, systems, and devices related to related to digital wireless communication, and more specifically, to techniques related to the power saving mechanism for multi-link operation. In one exemplary aspect, a method for wireless communication includes transmitting a link wakeup indication message to a wireless device over a first link of multiple links between the network node and the wireless device. The link wakeup indication message may indicate a request to transition at least one link of the multiple links between an active state and a power saving state. The method may also include, responsive to transmitting the link wakeup indication message, obtaining, by the network node, a link wakeup notification message from the wireless device indicating that at least one link of the multiple links has transitioned between the active state and the power saving state.

The invention provides a dynamic CPU scheduling method and system for an RISC-V platform, and relates to the technical field of resource allocation scheduling, and the method comprises the steps: obtaining a hardware performance event and a CPU load of the RISC-V platform in real time; feature selection is carried out on the collected hardware performance events, and a prediction data set is constructed; training a load prediction model based on reinforcement learning by utilizing the prediction data set so as to predict the load value of each CPU; adjusting the active state of the CPU based on the load prediction result of the CPU; according to the adjusted CPU state, tasks are redistributed, and the processor load is balanced; according to the RISC-V platform dynamic CPU scheduling method and system, hardware performance events and load prediction model design are combined, the fine-grained performance monitoring capacity in a system structure is fully utilized, optimal balance between performance and energy consumption is achieved, and the problem that in a traditional method, resource allocation is excessive or insufficient due to hysteresis is solved.

Methods, systems, and devices for wireless communications are described. A user equipment (UE) may perform, while operating in a connected state, a first set of quality of experience (QoE) measurements in accordance with a first QoE measurement and reporting configuration associated with the connected state. The UE may then transition from the connected state to one of an idle state or an inactive state. The UE may then perform, while operating in the idle state or the inactive state, a second set of QoE measurements in accordance with a second QoE measurement and reporting configuration associated with the idle state, the inactive state, or both, where the second QoE measurement and reporting configuration is different from the first QoE measurement and reporting configuration. The UE may then transmit, to a network entity, a QoE report including at least the second set of QoE measurements.

The invention relates to the technical field of performance testing, in particular to an electrochemical performance testing system and method for an energy storage device, and the system comprises a time synchronization triggering module, an impedance track acquisition module, a degradation state recognition module, an electrochemical abnormity monitoring module and a performance testing judgment module. According to the invention, multi-channel concurrent synchronous acquisition of voltage, current, impedance and temperature is realized by calculating sampling delay compensation time, and lithium precipitation, micro short circuit and electrode interface damage trend can be accurately identified by calculating a gradient absolute difference sequence of a voltage change rate and a current change rate and linking an impedance abrupt change rate and short-period abnormal fluctuation. In the process of judging the state of the energy storage device, open-circuit voltage distribution, charging and discharging current stability and impedance change trend are considered in a combined manner, the recognition accuracy of an active state, a degradation state and an abnormal state is improved, and the precision and reliability of electrochemical performance testing are improved.

Systems, apparatus and methods enable layer 2 (L2) relaying optimizations for a remote user equipment (UE) to receive system information (SI) from a relay UE. The relay UE may establish a sidelink communication channel with the remote UE that is in a radio resource control (RRC) idle state, an RRC inactive state, or an out-of-coverage (OOC) state with respect to the base station. The relay UE decodes a relay SI request received through the sidelink communication channel from the first remote UE. The relay SI request indicates requested system information. The Relay UE obtains the requested system information or a subset of the requested system information from a memory device or from the base station and encodes a relay SI response to send to the first remote UE. The relay SI response includes the requested system information or the subset of the requested system information.

According to some embodiments, a method is performed by a source network node for performing a sidelink path switch. The method comprises determining to switch a remote wireless device to sidelink communication with a target relay wireless device. The target relay wireless device is in an idle or inactive state and the target relay wireless device is served by a target network node different from the source network node. The method further comprises transmitting an indication to the target network node of the path switch involving the target relay wireless device.

A method performed by a terminal in a wireless communication system is provided. The method includes in case that a random access procedure for small data transmission (SDT) in a radio resource control (RRC) inactive state is initiated, transmitting, to a base station, a RRC message including a parameter associated with a size of uplink data, receiving, from the base station, a response message including information associated with transmission resource for the uplink data, and transmitting, to the base station, the uplink data based on the transmission resource.

A method, for transferring uplink data that includes control-plane or non-control plane information to a central unit (CU), is implemented by a distributed unit (DU) of a base station. The method includes receiving, from a user equipment (UE) in an inactive state, the uplink data via a logical channel, determining, based on the logical channel, whether to transmit the uplink data via a transport network layer protocol stack or in an uplink radio resource control (RRC) message transfer message, and transmitting the uplink data to the CU in accordance with the determining.

An access network device receives first information from an access and mobility management function network element. The first information carries a data size of downlink data of a terminal device buffered in a user plane function network element or a session management function network element, the terminal device is in an inactive state, and an extended discontinuous reception cycle is configured by the access network device for the terminal device. The access network device determines, based on the data size of the downlink data, that the downlink data is small data. The access network device sends a first indication to the terminal device, to indicate the terminal device to perform small data transmission, and a second indication to the user plane function network element, to indicate the user plane function network element to send the small data to the access network device.

A method can include receiving, by a wireless device, one or more radio resource control (RRC) messages. The messages can include one or more non-terrestrial network (NTN) configuration parameters indicating a validity timer. The validity timer can indicate a maximum time duration for which the one or more NTN configuration parameters are valid. The messages can also include one or more positioning sounding reference signal (SRS) configuration parameters indicating at least one positioning SRS resource for SRS positioning in an RRC inactive state of the wireless device. The method can also include starting the validity timer in response to the receiving the one or more NTN configuration parameters. The method can further include, based on the validity timer running in the RRC inactive state, transmitting, in the RRC inactive state, a positioning SRS via the at least one positioning SRS resource.

A method, implemented by a distributed unit (DU) of a base station that also includes a central unit (CU), of handling small data transmission (SDT) with a user equipment (UE), includes receiving, from the UE while the CE is in an inactive state, a first message including uplink data (304). The uplink data includes control plane or non-control plane information. The method also includes determining, based on a logical channel with which the uplink data is associated, whether to transmit the uplink data to a control plane of the CU (CU-CP) or a user plane of the CU (CU-UP) (306), and transmitting the uplink data to cither the CU-CP (308) or the CU-UP (320) in accordance with the determining.

Methods and apparatus for Timing Advance (TA) validation are disclosed. In some embodiments, a method for wireless communication at a user equipment (UE) comprises receiving, from a base station, configuration information, where the configuration information specifying a configured grant (CG)-small data transfer (SDT) resource available for use by the UE and specifying a configuration for a Reference Signal Received Power (RSRP) change-based TA validation method to be met in order to perform a SDT while in the RRC inactive state, the RSRP change-based TA validation method having configured TA validation criteria that is evaluated based on two measurement windows for timing advance (TA) validation, and at least one boundary of at least one of the two measurement windows for TA validation is based on a minimum of either a Frequency Range 2 (FR2) measurement period and a scaled Discontinuous Reception (DRX) cycle period, existing at time of TA validation criteria evaluation.

The invention relates to the field of hardware encryption, and discloses a geological disaster monitoring scene-based low-power-consumption hardware encryption system, which comprises a layered architecture module for constructing a terminal sensing layer and a cloud platform layer, generating a three-dimensional risk thermodynamic diagram, and carrying out short-term early warning model and emergency deduction; the encryption and decryption module is used for carrying out multi-dimensional identity verification based on protocol layering and national secret algorithm fusion, carrying out dynamic management and eavesdropping monitoring on a secret key, optimizing a data processing flow, and establishing a secure channel to dynamically negotiate whether encryption or decryption is needed; the key management module is used for implementing a triple binding mechanism, carrying out processing and risk assessment on the monitoring data, and carrying out key backup and recovery by adopting a dynamic key period according to a generated risk level; and the safety protection module is used for performing intelligent management on the power consumption of the system based on the active state of the system, selecting a compression strategy according to the data type by adopting a dynamic compression algorithm, performing safety monitoring on hardware and firmware, performing intrusion monitoring on the system and performing automatic repair.

The disclosure relates to a user equipment (UE), a network node, and respective methods for a UE and a network node. The UE comprises a transceiver and circuitry. The circuitry in operation receives a paging message, while being in an inactive state. In response to the paging message, the circuitry determines to remain in the inactive state for reception of small data. While remaining in the inactive state, the circuitry transmits a response to the paging message to a network node within a transmission opportunity associated with pre-configured resources.

Various embodiments herein provide techniques paging early indication for a user equipment in an idle and / or inactive state. Other embodiments may be described and claimed.

Methods, systems, and devices for wireless communications are described. Some wireless communications systems may support various techniques to track or otherwise obtain updated information regarding the current or future location of a user equipment (UE) that moves through one or more zones or coverage areas located in the wireless communications system. The UE may obtain predicted trajectory information that includes information associated with the predicted trajectory of the UE while the UE operates in an idle or inactive state. The predicted trajectory information may indicate at least at least one predicted zone associated with the UE at a time instance after obtaining the predicted trajectory information. Based on receiving the predicted trajectory information, the UE may communicate location information with one or more network entities, where the location information is indicative of one or more location or trajectory characteristics of the UE.

The invention provides a parameter negotiation method for a high-speed serial interface, which is applied to an adaptation layer of any chip in a chip pair for data interaction based on UCIE, and comprises the following steps: requesting a home terminal physical layer to enter an active state under the condition that the home terminal physical layer completes link training; under the condition that a home terminal physical layer enters an active state and a backdoor selection bit is not set, determining a home terminal performance index based on a link training result and home terminal performance parameters pre-configured by a user; determining a target protocol stack to be subjected to parameter negotiation and a to-be-negotiated protocol type of the target protocol stack based on the home terminal performance index, and performing parameter negotiation handshake with the opposite terminal based on the to-be-negotiated protocol type of the target protocol stack; under the condition that the parameter negotiation is successful, the target protocol and the target data format are determined based on the result of the parameter negotiation handshake, and the indication information of the target protocol and the target data format is sent to a home terminal protocol layer, so that the parameter negotiation efficiency of the high-speed serial interface can be improved.

The invention relates to the technical field of data transaction, in particular to a data transaction method based on a block chain, which comprises the following steps: acquiring original consumer transaction data, then executing multi-layer encryption, binding hash value storage after secondary encryption by a block chain node, calling an intelligent contract to match a public key address and authority, and storing the public key address and authority. And monitoring the active state and transaction volume of the block chain network in real time, calculating a log structure by adopting a chained hash process, writing the log structure into a non-tampering storage layer, and generating an audit log identifier. According to the method, the flexibility and efficiency of data access are optimized through intelligent contract automatic verification and dynamic allocation of access permissions, meanwhile, safe data access management is enhanced according to matching of public key addresses and permission conditions and dynamic calculation of consumer credit scores, and the real-time transaction volume and the node active state of a block chain network are monitored; the stability and the response speed of the network are improved, and the security, the efficiency and the reliability of the data in the transaction process are enhanced.

A communication method executed by a user equipment in a mobile communication system for providing a Multicast / Broadcast Service (MBS) includes the steps of: performing multicast reception in a Radio Resource Control (RRC) inactive state based on a multicast configuration received from a network through dedicated signaling; determining to access the network for update of the multicast configuration in response to determination that the update is necessary; and determining whether to apply or skip access control for restricting the access, based on configuration information from the network.

Various aspects of the present disclosure generally relate to wireless communication. In some aspects, a remote user equipment (UE) may receive an identifier associated with a relay UE and an identifier associated with a serving cell of the relay UE for a path switch. The UE may receive a local identifier associated with the remote UE based at least in part on connecting with the relay UE over a sidelink interface. The UE may identify, based at least in part on receiving the local identifier, a path switch failure condition associated with the relay UE while the relay UE is in an idle state or an inactive state. Numerous other aspects are described.

This disclosure provides systems, methods, and devices that support end of burst (EOB) mediated energy transitioning. In a first aspect, a method of wireless communication includes detecting an EOB indication. The EOB indication indicates an end of a communicated data frame. The method further includes, in response to detecting the EOB indication, transitioning from an active state at a user equipment (UE) to a low energy state at the UE during a next phase of discontinuous communication.

The invention provides an intelligent pet air purifier and a control method. The intelligent pet air purifier comprises a purification module, a camera module and a control module. The purification module is used for purifying air; the camera module is used for capturing a pet and an environment and generating image information; and the control module is used for controlling the intelligent pet air purifier to follow the pet and purify air along the way according to the image information. The control method comprises the steps that the control method is controlled by a starting instruction for starting the intelligent pet air purifier, and the working mode of the intelligent pet air purifier is confirmed; if the working mode of the intelligent pet air purifier is a following mode, the state of a pet is captured and confirmed; and if the state of the pet is the active state, following the pet and purifying air along the way. The pet air purification device can move along with a pet and purify air on the moving path, can be matched with the multi-moving state of the pet, and meets the requirements of a user.

Systems, methods, and instrumentalities are described herein for positioning in energy saving networks associated with time domain impact of dynamic cell discontinuous transmission (DTX) / Cell Turn Off on positioning reference signal (PRS) measurements. PRS measurement configurations may change, for example, based on a cell entering an active network energy savings (NES) state. For example, a PRS measurement configuration associated with an active NES state may be used (e.g., switched to) based on a cell entering active NES state (e.g., indication of a cell entering active NES state). The PRS measurement configuration associated with the active NES state may be used ensure correct PRS measurements and / or ensure correct reporting of PRS measurements associated with the active NES state.

A cache writeback circuit is disclosed for writing back, without invalidating, dirty cache lines. The cache writeback circuit is configured to enter an active state based on detecting a trigger condition indicative of cache misses to a memory cache circuit within a memory hierarchy of a computer memory subsystem causing cache line eviction activity. During the active state, the cache writeback circuit is configured to identify a set of dirty cache lines in the memory cache circuit, and write back, without invalidating, cache lines of the identified set of dirty cache lines from the memory cache circuit to a memory circuit within a lower level of the memory hierarchy, such as DRAM. The cache writeback circuit may further be configured to identify the dirty cache lines via a cache walk operation, which can be suspended, for example, when a higher-priority cache operation occurs.

Migrating quantum services based on temperature thresholds is disclosed herein. In one example, a first processor device of a first quantum computing device determines that a temperature of a second quantum computing device has exceeded a temperature threshold. The first processor device identifies a quantum service, executing on the second quantum computing device, for migration, and identifies a third quantum computing device of the quantum computing system as a migration destination for the quantum service. The first processor device of the first quantum computing device configures the second quantum computing device to place the quantum service in an inactive state, and transfers the quantum service from the second quantum computing device to the third quantum computing device. The first processor device then initiates execution of the quantum service on the third quantum computing device.

Disclosed are techniques for wireless communication. In an aspect, a user equipment (UE) operating in discontinuous reception (DRX) mode receives a DRX configuration, receives a reference signal resource configuration, determines, at least based on the DRX configuration and the reference signal resource configuration, whether an overlap exists between a reference signal occasion of a plurality of reference signal occasions of the reference signal resource configuration and an active time of the DRX configuration, receives or transmits at least based on a determined overlap, at least a first reference signal in the reference signal occasion, and receives or transmits, while remaining in an active state of the DRX configuration, at least based on the determined overlap, at least a second reference signal in remaining reference signal occasions of the plurality of reference signal occasions after expiration of the active time.

A central unit (CU) of a distributed base station that further includes a distributed unit (DU) is configured to transmit, to the DU, a CU-to-DU message requesting sounding reference signals (SRS) resources for a UE; receives, from the DU and in response to the CU-to-DU message, a DU-to-CU message including an SRS configuration for the UE; and transmits, to the UE via the DU, a command to release the radio connection, the command including the SRS configuration.