Integrated Source-Grid-Load-Storage Simulation Architecture
Integrates conventional power systems, renewable energy generation, and energy storage technologies to create a complete “source-grid-load-storage” integrated practical training environment.
High-Precision Physical Quantity Simulation Technology
Uses a double-circuit transmission line model to simulate power system characteristics under different tie-line impedance conditions.
Full-Process Fault Simulation System
Supports the setting and reproduction of multiple fault conditions, including instantaneous overcurrent, overcurrent, overvoltage, and undervoltage.
Virtual Grid-Connection Operation Training
Simulates real grid-connection operating procedures such as manual quasi-synchronous paralleling, excitation control adjustment, and under-excitation limiter testing.
Microprocessor-Based Protection Setting Training
Integrates complete protection function modules, including overcurrent protection, automatic reclosing, accelerated overcurrent protection, and underfrequency load shedding protection.
Renewable Energy and Energy Storage Scenarios
Covers three scenarios—photovoltaic power generation, wind power generation, and energy storage systems—with full-process training in design, installation, operation, and maintenance.
Standardized Assessment System
Integrated assessment of theoretical knowledge and virtual simulation-based practical operations.
|
Category |
Name |
Version / Requirement |
|
Operating System |
Windows |
64-bit Windows 10 or later |
|
Simulation Engine |
Power System Automation Simulation Platform |
V3.0 |
|
Browser |
Google Chrome |
V131 or later |
|
Supporting Software |
Microsoft Office |
2007 or later |
|
Equipment |
Specification |
|
Processor |
Intel Core i7 |
|
Memory |
16 GB DDR4 |
|
Storage |
512 GB SSD |
|
Graphics Card |
GTX 1660 |
|
Monitor |
23-inch, 1920 × 1080 resolution, 5 ms response time |
|
Network |
Gigabit Ethernet |
|
Equipment |
Technical Specifications |
|
Generator Set Simulation Module |
Three-phase synchronous generator, coaxial DC motor, speed measurement device, power-angle indicator |
|
Power System Automation Devices |
Microprocessor-based speed governor, microprocessor-based excitation regulator, microprocessor-based quasi-synchronizing controller, microprocessor-based line protection device |
|
Renewable Energy Generation and Storage Unit |
Photovoltaic power generation simulation, wind power generation simulation, grid-connected wind-solar generation and energy storage system |
|
Load Control System |
Programmable logic controller, various simulated loads, signal acquisition and control unit |
|
Fault Troubleshooting Module |
Simulation of control signal faults, energy storage circuit faults, and voltage/current measurement faults |
· Basic power system teaching, renewable energy technology training, and relay protection experiments
· Commissioning and maintenance skills training for power system automation devices
· Full-process training in the design, installation, operation, and maintenance of renewable energy generation systems
· Assessments for power system automation-related courses
· Periodic assessment of trainees’ skill levels
· Recording of practical training operations and standardized scoring
· Skills upgrading training for power operation and maintenance personnel
· Pre-job training for renewable power station operation and maintenance personnel
· Training in power safety operating procedures and emergency response drills
· Visualized teaching of power system operating principles
· Immersive learning of renewable power generation principles
· Case-based teaching of power system fault analysis and troubleshooting
· Online assessment of theoretical knowledge
· Virtual simulation practical skills training
· Recording of operating processes and automatic scoring
Q. Which power system scenarios can the Power System Automation Simulation Training Platform simulate?
A: The platform covers three core scenarios: conventional power system automation, renewable energy generation (photovoltaic and wind power), and energy storage systems. It provides complete “source-grid-load-storage” simulation training and supports full-process skills training from power system fault troubleshooting, automated grid-connection operations, and microprocessor-based protection setting and commissioning to the design, construction, operation, and maintenance of renewable energy systems.
Q. Can beginners with no prior knowledge quickly learn to use the platform?
A: Yes. The platform adopts a progressive instructional design, starting with basic understanding of power systems and gradually advancing to equipment operation, system commissioning, and fault handling. It includes detailed operating instructions and step-by-step guidance. Combined with the safety of virtual simulation, beginners can quickly master core skills in a risk-free environment.
Q. Does the platform support simultaneous online training for multiple users?
A: Yes. The platform adopts a B/S architecture and supports concurrent access by multiple users, making it suitable for classroom teaching and team-based collaborative training. The system provides separate student and instructor roles. Instructors can monitor trainees’ operating status in real time and provide remote guidance.