6results about How to "Improve startup reliability" patented technology

The invention provides an emergency escape system after collision of an electric vehicle and a control method thereof, and the system comprises an emergency controller which comprises a first input end in communication connection with a vehicle main network and a second input end in hard wire connection with a collision sensor, the emergency controller is configured to generate an activation instruction based on a first input signal of the first input end and a second input signal of the second input end; the plurality of distributed emergency power supply modules are provided with communication interfaces independent of the vehicle main network; the independent emergency communication bus is connected with the emergency controller and the communication interface; and the emergency controller is further configured to respond to the activation instruction, broadcast a power supply instruction to each distributed emergency power supply module through the independent emergency communication bus, and broadcast an execution instruction to the emergency door lock controller so as to control the emergency door lock controller to execute a preset emergency action. The life safety of passengers is guaranteed, and precious time is won for rescue.

The invention relates to the technical field of creative mobile terminals, in particular to a trusted startup method and system for a creative mobile terminal, and the method comprises the steps: carrying out hierarchical verification and state monitoring on a hardware trust root module, security startup firmware and an operating system kernel, extracting multi-dimensional security features, and constructing a system security feature vector; secondly, establishing a trust chain component dependency graph, and generating a trusted startup sequence with the minimum security risk through constraint optimization; in combination with the trusted startup sequence and the feature vector, intelligently identifying startup threats and dividing risk levels to form a layered security protection strategy; and dynamically adjusting a protection strategy and allocating a resource weight, loading and dividing the trusted component into a high-security verification area and a basic verification area for block verification, and outputting a trusted startup execution result. According to the method, full-link trusted measurement, intelligent risk management and control and resource optimization scheduling in the starting process are realized, and the safety and starting efficiency of the credential terminal are remarkably improved.

The invention belongs to the technical field of airborne embedded computers, and provides a processor starting method based on a dual-redundancy Flash storage architecture, and the method comprises the following steps: configuring a main Flash and a standby Flash which are mutually backed up for a processor, and storing the same bootstrap program for the main Flash and the standby Flash; in the starting process of the processor, sensing the starting state of the processor in real time, and judging whether the bootstrap program of the main Flash is abnormal or not according to the starting state; if the SPI chip selection signal is abnormal, dynamically switching the SPI chip selection signal of the processor to the standby Flash by the FPGA, triggering the processor to reset and restarting from the standby Flash; and after the processor is successfully started from the standby Flash, the bootstrap program of the main Flash is automatically repaired. According to the method, an NVRAM is not needed, all SPI interface processors are adapted, the false alarm rate is lower than 0.1%, the system recovery time is smaller than or equal to 2 seconds, and the starting reliability of the airborne system in the severe environment is remarkably improved.

This invention discloses a coordinated control method for a multi-module cascaded solid-state transformer, relating to the field of power electronics technology. The solid-state transformer includes multiple power conversion units, each employing a combined topology of front-end and rear-end conversion modules. Through the synergy of front-end voltage build-up control and rear-end optimal trajectory soft-start control, a phased and controllable soft-start strategy is constructed. First, the front-end actively builds up and equalizes the input buses at each stage, boosting and stabilizing the bus voltage within a safe operating range for startup, providing approximately constant input conditions for the rear-end stages. The rear-end stages employ an optimal trajectory control strategy, constraining the evolution paths of resonant current and capacitor voltage to achieve controlled power delivery, reducing problems such as overshoot, current surges, and excessive device stress during startup. Simultaneously, on the output side, phased control and a smooth transition mechanism ensure that the output voltage gradually builds up along a predetermined trajectory. After the system enters the steady-state operation stage, a post-stage steady-state optimization control method is proposed. The allocation coefficients of each module are used as unified optimization variables. The optimal allocation result is solved by a resource-aware distributed differential evolution algorithm. The allocation result is mapped to specific control inputs through the local controllers of each module, thereby optimizing the adaptive and coordinated operation mechanism of the post-stage system.

The application relates to a device control method, an insulin infusion device, a program product and a closed-loop infusion system, which are applied to an insulin infusion device, the insulin infusion device comprising a touch screen, at least one memory and at least one processor, the touch screen being used for receiving user input, the memory storing executable instructions, and the processor being used for executing the executable instructions to realize the following method: monitoring whether a blood glucose influencing event occurs during operation of a closed-loop operation mode; the blood glucose influencing event comprises an event that a user's blood glucose level deviates from a target blood glucose range of a control parameter due to device operation and / or user activity; in the case that it is determined that the blood glucose influencing event occurs, triggering a safety protection program; and performing safety management on the closed-loop operation mode of the insulin infusion device through the safety protection program.