Jupiter International targets 8.5 GW solar cell capacity by April 2027
Jupiter International aims to expand its solar cell manufacturing capacity from 4.5 GW to 8.5 GW by April 2027, driven by a new 3 GW TOPCon facility in Nagpur. The company is also initiating a 1.5 GW ingot and wafer project, though no timeline has been set for scaling this to match cell output.
Jupiter International has set a target to reach 8.5 GW of solar cell manufacturing capacity by April 2027, according to the company. This expansion builds on its current base of 4.5 GW, with a new 3 GW TOPCon facility currently under construction in Nagpur, Maharashtra.
Current Capacity Mix
Jupiter International’s existing 4.5 GW cell manufacturing base is split between two distinct technologies. The majority, 3.25 GW, utilizes Mono PERC cells, while the remaining 1.3 GW employs TOPCon technology.
Beyond cell production, the company is initiating a 1.5 GW ingot and wafer manufacturing project. However, no timeline has been provided for scaling this ingot and wafer capacity to match the broader cell production targets.
Nagpur Expansion Timeline
Jupiter International expects commercial production to begin at the Nagpur facility between February and March 2027. The company targets full-scale production at the site by the end of the following quarter.
Strategic Vision and History
Dhruv Sharma, CEO of Jupiter International, positions the firm’s expansion strategy on building organizational strength rather than merely constructing physical infrastructure.
- Sharma noted, The focus is not on building a plant. The focus is on building an organization.
- He conveyed the view that renewable energy, particularly solar power, is infinite and that its demand will expand very aggressively in the future.
- The firm joined the solar sector in 2009, starting with an annual production capacity of 45 MW.
- Over time, it has built six complete solar cell manufacturing units.
Wafer Formats and Industry Transition
Dhruv Sharma, CEO of Jupiter International, highlights the move to G12R wafer formats as a pivotal trend in solar cell production, observing that the majority of new machinery arriving in India is built to accommodate this larger dimension. He explains that G12R provides greater power density within a specific wafer area, rendering it a more economical and efficient choice for manufacturing. Sharma references China’s shift from M10 wafers to G12R as a signal of the industry’s future trajectory.
He characterizes Mono PERC as a crucial intermediate stage for Jupiter, allowing the firm to gain proficiency in manufacturing workflows and engineering demands prior to its transition to TOPCon technology.
Sharma credits Jupiter’s ability to expand to its track record in establishing and running solar cell plants, asserting an execution edge over recent market entrants. He contends that although engineering crews and outside advisors can assist in plant construction, cultivating an organization capable of optimal operation and sustaining competitive production costs presents a far more intricate hurdle.
Regarding market conditions, Sharma recognizes that the sector’s growth potential will draw substantial investment, yet he emphasizes that solar cell manufacturing is a complex, technology-driven field demanding more than just capital and factory infrastructure. He notes that Jupiter embraces competition, maintaining that such rivalry will push established producers to enhance their operational efficiency and elevate their technological standards.
What to watch
Jupiter International intends to evaluate the output of its fresh ingot and wafer facility by mid-to-late next year. The business anticipates finishing this technological transition by late 2027 or 2028.
Source: Saur Energy. This article is an original Luminity report based on the linked source.
