GCL New Energy's photovoltaic intelligent cleaning system consists of an intelligent ferry and track system, intelligent operation and maintenance using an unmanned robotic aerial vehicle, a wireless base station, and a control console. This achieves high efficiency and accuracy in cleaning and detection, avoids damage to components due to excessive cleaning, and increases operational intelligence.

GCL's horizontal single-axis tracker ensures the most direct angle of sunlight on the photovoltaic modules to maximize power generation by means of real-time tracking of the position of the sun with a self-developed control system. GCL horizontal single-axis tracker has the world's most reliable transmission system, control system and a maintenance-free motor that can protect against wind, hail and snowstorms, adapt to harsh natural environments, and improve the safety of the power plant.

GCL's tilted single-axis tracker tracks the trajectory of the sun at a fixed tilt angle, ensuring that the tilted plane can receive the maximum solar irradiation, thereby increasing the power generation. The tracker is a low cost, highly intelligent solution with strong diffusion. It has two modes: automatic tracking and manual tracking, which can be flexibly adjusted.

GCL's dual-axis tracker can be installed on different types of terrain to optimize the tilt angle to maintain stable power generation efficiency. It also increases power generation per unit area. With multiple functions including the avoidance of strong wind, dust, snow, shading, and flooding, the PV power plants can supply quality power.

The third-generation photovoltaic intelligent maintenance robot can not only quickly and efficiently clean dust off of modules, but is also a "doctor" that can scan the health status of modules and then transmit the detection information to a big data platform and optimize human-machine interaction.

Nano coating is approximately 150nm thick, and is a colorless transparent self-cleaning protective film formed on the photovoltaic module glass surface, which not only increases the luminosity, but also makes the glass surface hydrophilic and capable of self-cleaning, increasing the power generation by 3-5%.

The results of the GCL's wind load shape coefficient are drawn through accurate PV power station windflow field tests. Wind load data on solar panels of different zones is used in engineering design to avoid the wasting of photovoltaic support by adopting uniform shape coefficient in the traditional mode, and save the project cost.

GCL's third-generation of photovoltaic agriculture preserves agricultural output by utilizing directional illumination compensation technology in the shadow of photovoltaic modules, and the new screw pile design that does not damage the farmland, to effectively address the contradiction between photovoltaic power generation and crops in "fighting for the sun, space, and land". It also allows for the development of green environmental PV agriculture while not damaging the land and or reducing production.

The widely used adjustable support of GCL has an adjustment angle range of 40° and can be flexibly adjusted according to the topography, the sunlight angle, and other factors. This improves the adaptability of photovoltaic modules, so that PV power plant can be constructed in a wider area and continue to push into the mainstream.