When materials undergo phase transitions or decomposition under extreme temperatures, how can researchers capture those transient microscopic changes? Thermal analysis techniques serve as a "microscope" for revealing material thermal properties, providing precise data support for material development through rigorous control of temperature ranges and atmospheric conditions.
This suite of thermal analysis instruments addresses comprehensive needs from cryogenic freezing to high-temperature sintering:
Designed for varying thermal stability requirements, the DSC series offers three configurations:
The TGA series supports standard testing from room temperature to 600°C, with ceramic crucibles extending the upper limit to 950°C for precise mass change monitoring. The TG/DTA simultaneous thermal analyzer further expands capabilities to 1500°C, meeting complex thermokinetic research requirements for ceramics, minerals, and other high-temperature materials.
The light element analyzer features dual-atmosphere control capabilities:
This provides reliable data for material composition identification.
Through this array of high-precision instruments, researchers can thoroughly analyze material thermodynamic behavior, enabling optimization of process parameters to ensure exceptional performance in complex environments.
When materials undergo phase transitions or decomposition under extreme temperatures, how can researchers capture those transient microscopic changes? Thermal analysis techniques serve as a "microscope" for revealing material thermal properties, providing precise data support for material development through rigorous control of temperature ranges and atmospheric conditions.
This suite of thermal analysis instruments addresses comprehensive needs from cryogenic freezing to high-temperature sintering:
Designed for varying thermal stability requirements, the DSC series offers three configurations:
The TGA series supports standard testing from room temperature to 600°C, with ceramic crucibles extending the upper limit to 950°C for precise mass change monitoring. The TG/DTA simultaneous thermal analyzer further expands capabilities to 1500°C, meeting complex thermokinetic research requirements for ceramics, minerals, and other high-temperature materials.
The light element analyzer features dual-atmosphere control capabilities:
This provides reliable data for material composition identification.
Through this array of high-precision instruments, researchers can thoroughly analyze material thermodynamic behavior, enabling optimization of process parameters to ensure exceptional performance in complex environments.