Translucent Energy began operating the first phase of a new solar module factory in Summerville, South Carolina, on August 17, 2026, with a production capacity of 1.3 GW. The company says the factory will provide 167 jobs before the end of the year, with additional jobs to be added as subsequent expansion phases are implemented.
The project gives the Charleston-based company a U.S. manufacturing base for producing modules intended for utility-scale, commercial and industrial, and residential projects. According to the source article, Translucent Energy plans to expand its operations in the future to include solar cell and wafer manufacturing in the United States, rather than limiting itself to module assembly.
Why does this matter?
The factory’s importance stems from its size relative to the state of South Carolina’s solar industry. The state ranks 24th among U.S. states in installed solar capacity, and solar power accounts for only 3.9% of its electricity generation. Estimates from the Solar Energy Industries Association (SEIA) also indicate that slightly more than 1.7 GW of solar capacity will be added in the state over the next five years, placing it 36th in terms of expected growth.
June data, according to the source, indicate that only 516 solar jobs are distributed across 105 entities in the state, including installation, development, and manufacturing companies. Therefore, the factory’s announced capacity does not necessarily reflect local demand; instead, it may lead the company to target other U.S. markets, particularly if it can maintain quality and expand its customer network.
Manufacturing and trade policy
Translucent Energy welcomed an announcement issued by U.S. President Donald Trump on August 6 under Section 232 of the Trade Expansion Act of 1962. The announcement concerns restrictions on imports of polysilicon, a key component in solar cells, along with measures intended to encourage its domestic production.
The company’s general manager, Augustus Rylands, said that the announced tariffs on polysilicon and its derivatives give U.S. manufacturers, in the company’s view, greater certainty to invest at scale. The technical director, Dr. Nabih Cherradi, said the factory was designed to produce American-made modules in accordance with international quality standards. The effects of trade policy on production costs, prices, and supply chains remain open questions that the article does not answer.
From the factory to microgrids and vehicle charging
Translucent Energy’s activities are not limited to module manufacturing. The company is developing the TAU system, a transportable microgrid packaged inside containers. Its solar modules are installed on an opening platform that can be secured on rooftops or on the ground, then folded and transported to another site.
TAU is intended for applications including rural electrification, electric vehicle charging facilities, emergency relief services, temporary settlements, water treatment plants, agricultural facilities and greenhouses, off-grid telecommunications facilities, as well as industrial and military sites and remote islands.
The company also markets the EV-E system, which includes integrated charging stations. The EV-E4 version can charge up to four vehicles simultaneously, while the EV-E7 version raises that number to seven vehicles. The company provides customized fleet solutions that can operate off-grid or with a grid connection, with the size of the solar array and storage system and the number of chargers determined according to the number of vehicles and the required charging speed.
The EV-E BASE system targets developers that have preselected charging stations and need to integrate them with a solar microgrid to overcome grid constraints. According to the company, the system can operate independently or connect to the grid to take advantage of off-peak electricity prices.
What remains unresolved?
Translucent Energy has announced substantial capacity and multiple expansion plans, but the source provides no details on the size of the investment, the number of modules expected to be produced in practice, customer contracts, or the timeline for moving into cell and wafer manufacturing. Therefore, the operation of the first phase represents a significant development in U.S. solar manufacturing, while the project’s practical value will depend on reaching the announced capacity, maintaining expansion, and the ability of its microgrid and charging solutions to reach sites that genuinely need flexible power.