QR-9 Full-Spectrum Direct-Reading Optical Emission Spectrometer For Fast And Accurate Elemental Analysis Of Metals And Alloys

The QR-9 Full-Spectrum Direct-Reading Optical Emission Spectrometer (OES) is a high-performance instrument designed for rapid and precise elemental analysis of metals and alloys in the metal manufacturing industry. With a detection time of only 25 seconds and a wavelength range of 30–800 nm, it ensures fast, reliable, and accurate measurement of both major and trace elements, supporting quality control, material classification, and research applications.

Product Introduction

QR-9 combines full-spectrum direct-reading technology with a high-resolution CCD detector, enabling the simultaneous measurement of multiple elements. The spectrometer employs vacuum optical chamber design and a full-digital excitation light source, ensuring low detection limits, excellent repeatability, and long-term stability. It is specifically optimized for metal manufacturers who require quick and accurate compositional analysis for production and quality assurance.

Key Advantages

• Rapid Detection – Complete elemental analysis in just 25 seconds, enhancing workflow efficiency.

• Wide Wavelength Range – Measures elements across 30–800 nm, covering major and trace elements in metals and alloys.

• High Precision & Stability – CCD detector ensures accurate, reproducible results with long-term reliability.

• User-Friendly Operation – Digital system simplifies setup, measurement, and data handling.

• Cost-Effective & Efficient – Reduces testing time and operational costs while maintaining high analytical performance.

Technical Specifications

Applications

• Metal Manufacturing Quality Control – Ensures metal and alloy compositions meet production specifications.

• Material Classification – Identifies grades of ferrous and non-ferrous metals.

• Research & Development – Supports development of new alloys and material optimization.

• Industrial Laboratories – Fast and accurate testing for large-scale production environments.