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1956 Acquisition of license to manufacture batch mills
A special agitator shaft with symmetrically arranged agitator pegs and sleeves of tungsten carbide for wear protection devel- Vertical, batch operation mill for the preparation of tungsten Ideal flow behaviour due to a special agitator peg arrange-ment and the hemispherically shaped chamber floor integrated screen plate for grinding media separationIntensive cooling through a double-wall grinding tank and cooled circulation pipeline
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Development of the first continuous agitator bead mill
Product inlet via rotor / immersion tube system prevents back flow of grinding media into the feed line.
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Bottom up & Top down
Generally, there are two ways to obtain nano-powders. A bottom-up manufacturing method (bottom up) for chemical methods, such as chemical precipitation, sol-gel process (sol-gel),... Another method is physical method, which changes the powder particles from big to small (top down), such as mechanical ball milling,... And so on.
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Horizontal Disk Grinding Machines
The Development In 1963, the first vertical agitator was developed internationally, the first horizontal agitator was developed in 1975, the first horizontal agitator bead mill with eccentric disks was introduced to the public and the horizontal disc grinder was introduced， in 2004, which became the industry standard. In the following years, the grinding media separation systems, the geometry of the grinding disks and the various grinding chamber materials were further developed.
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Rod-pin nano-grinding Technology
The grinding system pin nanomill shows the evolutionary develop- ment of system with the rotor-slotted pipe separating system. The enclosed horizontal agitator mill is designed for highest product throughput rates and possesses a pin grinding system for highest grinding intensity.
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Ceramic comminution chamber technology
In 2011, we developed the first zirconia comminution chamber technology in China. It has no metal ion pollution and is used in batteries, pharmaceuticals, glazes, ink and food.
實驗室設備主要采用標準工藝應用，容易操作，檢驗配方，實驗新產品，將實驗室數據放大到生產，驗證產品放大的能力，質量和產量，及設備運行參數，實驗新產品和應用
濕法研磨目前以機械方法的濕法研磨方式得到納米級粉體最有效且最合乎經濟效益方法。它避免了化學法的納米粉體制造方法制造時的高成本，且產能不易放大同時和所得到粒徑分布亦較大的缺陷。同時也避免了干法研磨細度難..
機座采用臥式形式，結構采用盤片棒銷混合結構，有利用加強研磨，材質采用特耐磨鋼、鋯陶瓷、聚氨酯等，可以應用于不同濕法研磨漿料場景，如涂料、電子漿料、色劑、油墨等，粉碎腔可以從1L至1000L不等，線性放大。..
研磨腔轉子結構經過重新仿真流體設計，效率提升20%，鋯球減少10%，粒度分布更窄，極限細度d50小于20nm（因工藝材料而定）
籃式砂磨機，傳動系統采用雙軸系統，區別于傳動籃砂，研磨籃旋轉帶動籃內鋯球研磨漿料，線速度更大，大大提高了研磨效率，減少了研磨死角，功率范圍7.5kw至75kw不等。研磨籃定制可采用特耐磨鋼、氧化鋯陶瓷等材質，..
原裝日本進口，采用滴定法生產工藝，3Y系列氧化鋯原料，更致密、耐磨，球型粒徑范圍0.03mm-25mm可選。提供進口COA報告。
采用立式結構，工程液壓缸系統，更加安全、穩定，分散齒可以采用單層或雙層設計，滿足不同漿料粘度的需求，是粉料預混合、均勻分散的理想選擇。
高剪切分散乳化設備不是一般的混合設備。在批次混合工藝中，轉子高速旋轉所產生的高切線速度和高頻機械效應帶來的強勁動能，使物料在定、轉子的間隙中受到強烈的機械及液力剪切、離心擠壓、液層摩擦、撞擊撕裂和湍流..
采用304或316不銹鋼材質，可雙層或外壁半管式冷卻方式，攪拌漿可采用三葉片、框式、錨式、分散齒盤等多種形式，可包覆PU、噴涂碳化鎢，罐內壁可噴PTFE、特氟龍、四氟、碳化鎢等多種材質，釜可開發式、密閉式，體積0...
通過投料系統、上料系統、稱重系統、漿料輸送系統、過濾系統、除磁系統、預混系統、均質系統、研磨系統、儲存系統、罐裝系統等組成濕法研磨生產線。
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