Differential Scanning Calorimeter LDSC-A15

Labtron’s Differential Scanning Calorimeter LDSC-A15 is engineered to handle diverse and thermally sensitive materials due to its wide temperature range (RT to 1250°C), high-resolution heat flow detection (0.001 mW), and adaptive PID temperature control. In polymers, it identifies transitions like Tg and crystallinity; in pharmaceuticals, it can detect purity, polymorphism, and decomposition; and in food science, it helps study fat melting behavior, glass transitions in starches, and moisture migration.

Unlike conventional metal or open-type furnaces, the Differential Scanning Calorimeter LDSC-A15 has a closed ceramic insulation furnace that minimizes external thermal interference and maximizes heat retention. This design leads to enhanced signal sensitivity, improved resolution of overlapping thermal events, and a highly stable baseline, crucial for detecting minor phase transitions or subtle enthalpic changes.

Our Differential Scanning Calorimeter LDSC-A15 is equipped with a full-color 7-inch LCD touchscreen that enables real-time monitoring of heat flow curves, temperature ramps, and system diagnostics. This interface simplifies interaction, allowing users to set programs, observe scan progress, and make real-time adjustments. The intuitive layout reduces the learning curve and supports efficient training and operation, even in high-throughput lab environments. It’s especially beneficial in dynamic testing where user awareness and timing are critical.

Many thermal events depend on the surrounding atmosphere. Our Differential Scanning Calorimeter LDSC-A15 includes intelligent, dual-path gas control that allows automatic switching between two different gas environments (e.g., inert and oxidative). This feature is essential when analyzing materials that behave differently in nitrogen versus oxygen or when conducting thermal decomposition, oxidation studies, or inert gas purging. Automated switching improves safety, efficiency, and repeatability while reducing manual intervention and error.