Pioneering High-Purity Chemical Processing in the Semiconductor Industry

The Challenge
In semiconductor manufacturing, the demand for high-purity chemicals keeps rising: they are critical to etching and cleaning, where even the slightest impurity can compromise wafer integrity. A leading semiconductor manufacturer needed to upgrade its chemical processing system to meet the purity standards of its next-generation products. The traditional metal pumps moving those chemicals introduced the risk of corrosion and leaching, producing unacceptable impurity levels.
The Solution
The manufacturer partnered with RE Merrill to deploy Vanton engineered thermoplastic pumps, designed specifically for high-purity applications with unmatched resistance to corrosion and contamination. Vanton's construction material eliminates the risk of metal leaching, so processed chemicals keep their purity. The transition included a comprehensive analysis of the chemical processing workflow and on-site training focused on maintenance practices that extend pump life and preserve purity.
The Results
- Enhanced chemical purity: high-purity chemicals stayed uncontaminated through every processing stage, contributing directly to product quality.
- Operational efficiency: pump reliability reduced downtime and maintenance costs, keeping production cycles uninterrupted.
- Environmental and safety compliance: hazardous leaks and spills fell, supporting the manufacturer's environmental and workplace safety commitments.
Why do metal pumps threaten semiconductor purity?
Metal pumps in aggressive chemical transfer risk corrosion and metal leaching, introducing impurities that even at slight levels can compromise semiconductor wafers in etching and cleaning processes.
What was deployed instead?
Vanton engineered thermoplastic pumps designed for high-purity applications, whose construction material eliminates the risk of metal leaching.
What results followed?
Chemicals stayed uncontaminated through processing, downtime and maintenance costs fell, production cycles ran uninterrupted, and hazardous leaks and spills decreased.
