A Spark of Light
Hall Three ▪ Craftsmanship
In 2001, Dr. Shi Zhengrong returned to China to establish Suntech. By 2005, China's solar module production accounted for only 11% of global output, and its polysilicon production represented a mere 0.3% of the world's solar-grade silicon consumption.
2001-2005
Venturing into Photovoltaics
In 2003, the company imported two Meyer Burger slicing machines from Switzerland, marking the official start of its journey in pursuit of solar innovation. It became the pioneer in introducing crystalline silicon multi-wire slicing technology to China.
The Darkest Hour
Hall Three ▪ Craftsmanship
In 2008, the global financial crisis cast a shadow over the world, and Western nations began scaling back photovoltaic subsidies. By 2012, the U.S. and Europe imposed anti-dumping ("double anti") measures and additional tariffs on Chinese PV products.
2008-2012
Overcoming Challenges
In 2006, the company initiated cooperation with MEMC through OEM services. By 2010, it had co-founded Meike Silicon Energy and proactively expanded into overseas markets, establishing a customer base across South Korea, Malaysia, Norway, India, and beyond.
Industry Transformation
Hall Three ▪ Craftsmanship
In 2015, the adoption of diamond wire cutting technology accelerated the growth of the monocrystalline market share. By 2018, the "5.31" policy introduced by the National Energy Administration marked a turning point, with monocrystalline replacing polycrystalline as the dominant industry direction.
2015-2018
Meike's Strategic Shift
Starting in late 2017, the company conducted multiple site visits to Baotou, Leshan, and other regions. In July 2018, Baotou Meike was established in Kundulun District, Baotou City, Inner Mongolia, focusing on monocrystalline ingot production. Once again, Meike achieved a remarkable transformation.
A Remarkable Transformation
Hall Three ▪ Craftsmanship
In September 2020, President Xi Jinping announced China's ambitious goals of achieving "carbon peak" by 2030 and "carbon neutrality" by 2060.
2019 to today
Embracing the "Dual Carbon" Era
Meike is forging ahead with the strategic objectives of the 14th Five-Year Plan, striving to become the world's most influential silicon wafer supplier.
intelligent PV manufacturing
Hall Three ▪ Craftsmanship
Industrial Silicon
Improved Siemens polysilicon
If quartz and charcoal are mixed and heated to above 1900°C, electrolysis can produce more than 98% silicon, known as metallurgical-grade silicon. Because it contains some metals, it is also referred to as metallic silicon or silicon metal. This silicon material can be further purified to produce higher purity silicon (polysilicon), which is used in the manufacturing of crystalline silicon solar cells.
The Siemens process for polysilicon production involves using high-purity hydrogen to reduce trichlorosilane on a high-purity silicon core at around 1100°C, producing polysilicon that deposits onto the silicon core. The improved Siemens process not only maintains traditional production but also incorporates energy-saving measures, reduces consumption, and recycles byproducts like H₂, HCl, and SiCl₄, as well as large amounts of heat energy. Most polysilicon manufacturers around the world use this improved Siemens method. It is the most mature, widely applied, and fastest-growing technology for polysilicon production.
Granular Silicon Obtained from Siliane FBR Method
Granular silicon is produced via the Fluidized Bed Reactor (FBR) method using silane. This method has relatively low production costs. Granular silicon increases the packing density of silicon materials, enhancing production efficiency. Its excellent flowability makes it suitable for continuous feeding and has become widely used in the industry.
Silicon Materials
intelligent PV manufacturing
Hall Three ▪ Craftsmanship
Czochralski Method
Diamond Wire Slicing Technology
The Czochralski method is used for crystal growth. Polycrystalline silicon is loaded into a quartz crucible and melted at around 1500°C. Through processes such as seed growth, necking, shoulder forming, diameter control, and tailing, uniform single-crystal silicon rods are grown. After cooling, the silicon rod is cut, squared, and polished to the required dimensions, then mounted on rails and plastic plates for cutting.
Diamond wire slicing involves using a specialized slicer with high-speed reciprocating diamond wire, which grinds against the silicon rod under pressure, enabling efficient cutting. Compared to traditional slurry cutting, diamond wire slicing offers faster cutting speed, higher precision, and lower material loss. After slicing, the silicon wafers are placed in ultrasonic cleaning machines to remove surface impurities. Meike uses 100% advanced silicon wafer sorting machines to inspect and sort the wafers based on appearance, thickness, resistivity, TTV, and warpage, packaging them according to grade and shipping requirements.
High Efficiency P/N Type Mono Wafer
Photovoltaic systems are typically classified into off-grid, grid-connected, and hybrid systems. In recent years, the global installed capacity of solar power has grown rapidly, surpassing 800GW by 2021. Against the backdrop of carbon peaking and carbon neutrality, the International Renewable Energy Agency (IRENA) predicts that by 2050, renewable energy will account for 90% of global power generation, with solar and wind power accounting for 63%, and global photovoltaic installed capacity exceeding 14,000GW.
Silicon Rods
Wafer
intelligent PV manufacturing
Hall Three ▪ Craftsmanship
Czochralski Method
Diamond Wire Slicing Technology
The Czochralski method is used for crystal growth. Polycrystalline silicon is loaded into a quartz crucible and melted at around 1500°C. Through processes such as seed growth, necking, shoulder forming, diameter control, and tailing, uniform single-crystal silicon rods are grown. After cooling, the silicon rod is cut, squared, and polished to the required dimensions, then mounted on rails and plastic plates for cutting.
Diamond wire slicing involves using a specialized slicer with high-speed reciprocating diamond wire, which grinds against the silicon rod under pressure, enabling efficient cutting. Compared to traditional slurry cutting, diamond wire slicing offers faster cutting speed, higher precision, and lower material loss. After slicing, the silicon wafers are placed in ultrasonic cleaning machines to remove surface impurities. Meike uses 100% advanced silicon wafer sorting machines to inspect and sort the wafers based on appearance, thickness, resistivity, TTV, and warpage, packaging them according to grade and shipping requirements.
High Efficiency P/N Type Mono Wafer
Photovoltaic systems are typically classified into off-grid, grid-connected, and hybrid systems. In recent years, the global installed capacity of solar power has grown rapidly, surpassing 800GW by 2021. Against the backdrop of carbon peaking and carbon neutrality, the International Renewable Energy Agency (IRENA) predicts that by 2050, renewable energy will account for 90% of global power generation, with solar and wind power accounting for 63%, and global photovoltaic installed capacity exceeding 14,000GW.
Cell
Wafer
A Story of Photonics and Sapphire
170 kg of Sapphire
Hall One ▪ Founding spirit
Journey in Pursuit of Light
The first polycrystalline silicon ingot
2007.1
Hall One ▪ Founding spirit
Enterprise Introduction
MEIKE
2003-2021
Photovoltaic process
2003
Introduced two multi-wire slicing machines from Switzerland’s Meyer Burger, becoming a pioneer in China's professional crystalline silicon wafer cutting industry.Established Zhenjiang Huantai Silicon Science &Technology Co., Ltd.
Began the production and sales of monocrystalline silicon rods.
Started the multicrystalline ingot casting business.
Jointly founded Glory Silicon Energy Co., Ltd. with Wuxi Suntech.
Formed a joint venture with MEMC (USA) to establish Jiangsu Meike Silicon Energy Co., Ltd.
Established Jiangsu Gaozhao New Energy Development Co., Ltd., the predecessor of Meike Co., Ltd.
Founded Baotou Meike Silicon Energy Co., Ltd.
Successfully completed the corporate restructuring of JIANGSU MEIKE SOLAR TECHNOLOGY INC.
2004
2005
2006
2010
2017
2018
2007
2021