• Fully integrated end-to-end solution: Covers the entire "water → energy → electricity → transmission" process without requiring additional adaptation for third-party equipment;

• High efficiency and energy saving: Overall energy conversion efficiency exceeds 85%, far above the industry average;

• Intelligent unmanned operation: Supports remote monitoring and automatic operation, reducing O&M costs by 60%;

• Safe and reliable: Equipped with multiple fault protection mechanisms, with equipment design life of ≥30 years.

Solution Content：

Starting with the "water head (reservoir)" as the energy source, the intelligent gate system (corresponding to 1 in the diagram) achieves precise regulation of water flow opening to adapt to different power generation load requirements. This is complemented by the high-pressure penstock (corresponding to 2 in the diagram), which completes the sealed delivery of high-pressure water flow, utilizing the water level difference to maximize the retention of water flow kinetic energy, laying the foundation for subsequent power conversion.

Solution Advantages：

The gate response speed is<0.5 seconds, and the penstock is made of corrosion-resistant alloy material, adapting to various geological and water level conditions to ensure long-term stable water conveyance.

This is the core step in the "from water to electricity" process：

1.The intelligent intake valve (corresponding to 3 in the diagram) dynamically regulates water flow to match real-time power generation demands.

2.The customized turbine (corresponding to 4 in the diagram) adapts to the project's head difference, converting water flow kinetic energy into mechanical rotational energy with a conversion efficiency of over 92%.

3.The high-efficiency generator (corresponding to 5 in the diagram) works in precise coordination with the turbine, converting mechanical energy into electrical energy through electromagnetic induction, with power output covering all scenarios from 10MW to 500MW.

Solution Content：

After power generation is completed, the medium-voltage switchgear (corresponding to 7 in the diagram) is used for initial power distribution and protection; the high-efficiency power transformer (corresponding to 8 in the diagram) steps up the voltage (adapted for long-distance transmission characteristics), and after being controlled by the high-voltage switchgear (corresponding to 9 in the diagram), it is safely connected to the public power grid through transmission lines (corresponding to 10 in the diagram).

Solution Advantages：

The transformer's energy efficiency level meets the national standard Level 1, and the transmission line loss is reduced by 15% compared to the industry average, ensuring efficient power delivery to end users.

Integrates automation/control/protection systems (corresponding to 6 in the diagram), achieving:

• Real-time monitoring: Simultaneously collects 20+ core parameters such as water flow, voltage, and equipment temperature;

• Intelligent adjustment: Automatically adjusts gate opening and power output based on grid load;

• Fault warning: Triggers protection mechanisms (e.g., closing the intake valve) within 1 second under abnormal conditions to prevent equipment damage.