Advanced Oxygen Permeation Analysis Trace Precision for Barrier Material Innovation

DESCRIPTION / TECHNICAL SPECIFICATIONS

For innovators and researchers in the packaging materials field, the ability to measure extremely low levels of oxygen permeation is key. We present an oxygen permeation analyzer designed specifically for trace oxygen permeation analysis of packaging barrier films. This instrument is the ideal tool for testing and researching both current and newly formulated film materials. With a design that is both modular and extremely flexible, this analyzer provides a reliable platform to push the boundaries of protective material innovation.

A key advantage of this instrument is its ability to simulate actual climatic conditions through computer-controlled temperature and humidity. This feature allows researchers to understand how their barrier materials will behave in various real-world scenarios, providing invaluable data for product development. With an outstanding measuring precision of 0.001 cm³/m²/day, even the smallest levels of oxygen permeation can be detected, ensuring there are no gaps in your quality assurance.

The reliability of analysis data is guaranteed through a versatile dual calibration system, which can utilize both standard gas and NIST traceable films. This flexibility not only allows for accurate film-to-film comparison but also strengthens confidence in the testing results. Operation is made easy and safe thanks to features like automatic testing and gas leak protection. Built with an epoxy-coated heavy-gauge steel enclosure, the instrument is designed for long-term durability in a busy laboratory environment.

By investing in this oxygen permeation analyzer, you empower your R&D and Quality Control teams with a tool capable of conforming to stringent international standards. This is more than just a testing instrument; it is an innovation enabler that allows you to design, validate, and launch the next generation of packaging materials with complete confidence. Gain a competitive edge with the most precise, trace-level oxygen permeation data available.