Complete thermal analysis in a single measurement
Our state-of-the-art STA 449 F3 Jupiter from NETZSCH is an advanced and reliable system for simultaneous thermal analysis
STA 449 F3 Jupiter from NETZSCH
Our state-of-the-art STA 449 F3 Jupiter from NETZSCH is an advanced and reliable system for simultaneous thermal analysis, designed for accurate and efficient material characterization. By combining thermogravimetric analysis (TGA) and DSC/DTA in a single measurement, the instrument provides a comprehensive understanding of both mass changes and thermal processes—without the need for multiple tests.
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Benefits
- Simultaneous TGA and DSC/DTA for faster and more reliable analysis – complete characterization in a single measurement
- Precise assessment of thermal stability, decomposition, and phase transitions
- Controlled atmospheres for realistic testing conditions
- A robust and versatile instrument for demanding analyses
Read more
Contact: Kenneth Aasarød
Our state-of-the-art STA 449 F3 Jupiter from NETZSCH is an advanced and reliable system for simultaneous thermal analysis, designed for accurate and efficient material characterization. By combining thermogravimetric analysis (TGA) and DSC/DTA in a single measurement, the instrument provides a comprehensive understanding of both mass changes and thermal processes—without the need for multiple tests.
With high measurement precision, flexible atmosphere control, and temperatures up to 1600 °C, the STA 449 F3 Jupiter is ideal for research, development, and quality control. The instrument can handle a wide range of materials, from polymers and composites to ceramics, metals, and inorganic substances.
Benefits:
- Simultaneous TGA and DSC/DTA for faster and more reliable analysis – complete characterization in a single measurement
- Precise assessment of thermal stability, decomposition, and phase transitions
- Controlled atmospheres for realistic testing conditions
- A robust and versatile instrument for demanding analyses
The STA 449 F3 Jupiter provides detailed insight into the thermal properties of materials – efficiently, accurately, and with excellent reproducibility.
