The wind delivery system represents a groundbreaking approach to harnessing wind power efficiently. One of its standout features is its ability to integrate multiple wind turbine generator systems within its Venturi section, allowing for enhanced power generation. Unlike traditional setups, captures wind flow through either omnidirectional intake or multi-unidirectional intakes, eliminating the need for passive or active yaw control to orient the wind turbine. The captured wind is then accelerated within the Venturi section before being released into the ambient environment through a diffuser, facilitating multi-stage power generation.
A significant aspect of design is its capacity to accommodate multiple turbines within its Venturi section. This configuration enables the utilization of wind power that may otherwise go unharnessed due to the limitations of a single turbine. The present study aims to evaluate the system’s performance by examining the data collected from single, double, and triple turbine configurations within the Venturi section.
The testing involved three turbines to ensure consistency in output under similar input, environmental, and load conditions. Remarkably, all three turbines demonstrated identical performance throughout the testing phases, conducted over a 24-month period.
In a two-turbine configuration, the addition of the second turbine resulted in a substantial increase in voltage output, generating 70% more voltage compared to a single turbine setup. Similarly, in a three-turbine configuration, the combined output produced 2.2 times the voltage of a single turbine, showcasing the system’s scalability and efficiency.
Notably, the downstream turbines in the multi-turbine setups did not diminish the output of the first turbine, contrary to expectations. This observation highlights the effectiveness of wind generator in maximizing wind energy utilization across multiple stages.
Further analysis compared performance with and without turbines within the Venturi section. The results indicated higher wind speeds and enhanced energy production when turbines were integrated into the system. Additionally, the omnidirectional intake of wind generator proved effective in capturing wind from various directions, contributing to its overall efficiency.
In practical terms, the field data demonstrated that wind generator outperformed traditional wind turbine generator systems, yielding significant improvements in energy production. Over an eight-day period, wind generator generated between 80% to 640% more electrical energy compared to conventional systems, emphasizing its potential as a game-changer in wind power generation.
In conclusion, the field data analysis underscores the promising performance and scalability of the wind generator wind power system, validating its effectiveness in harnessing wind energy across various configurations and environmental conditions.