en.Wedoany.com Reported - JinkoSolar has signed a 282.45MW high-efficiency module supply agreement with a renowned clean energy developer in Greece. All modules utilize the Tiger Neo 3.0 N-type TOPCon high-efficiency bifacial modules, specifically designated for local large-scale ground-mounted power plant projects.
Greece enjoys over 2,800 hours of effective annual sunshine, but its terrain is predominantly mountainous and hilly, with limited flat land resources. Shading caused by mountain shadows and rapid cloud movement imposes high demands on module power density and shading resistance. The Tiger Neo 3.0 module is designed to address these challenges from three aspects.
The module achieves a maximum mass production conversion efficiency of 24.8% and a power output of 670W. Under the same area, installed capacity increases by 8%-10%, helping to reduce racking and cable costs while improving land utilization.
Large-scale power plants in Greece are often located near mountains, slopes, and island cliffs, where mutual shading between arrays during early morning and late afternoon, as well as mountain reflections, are common. Traditional modules often suffer from significant power loss across the entire string due to the "weakest link" effect. The Tiger Neo 3.0, by restructuring the battery layout topology and electrical architecture, achieves a multiplied improvement in shading resistance performance. Under conditions such as morning mist, long shadows at dusk, rapid cloud movement, or partial shading from mountains, the module maintains extremely high power output and stability.
The module's bifaciality ratio can reach up to 90%, effectively capturing the high reflectivity of Greece's light-colored limestone and gravel surfaces. The combined power generation from the front and back sides delivers additional energy yield gains.
Furthermore, the module features an ultra-low temperature coefficient of -0.26%/°C, resulting in minimal power loss due to temperature rise in Greece's summer heat, which can approach 40°C. Its first-year degradation is less than 1%, with an annual linear degradation of only 0.35%, providing stable power generation returns for project investors over a 30-year full lifecycle.
