Glacier Coolant LM-16C1 Synthetic Hydrocarbon High-Temperature Coolant 10°C To 340°C

Glacier Coolant LM-16C1 is a synthetic hydrocarbon compound with good thermal stability, used for indirect heat transfer. Owing to its uniform heating, accurate temperature control, excellent heat transfer performance, energy saving, and convenient delivery and operation, it has been widely applied in the pharmaceutical, chemical, solar-thermal new energy, oil and natural gas industries.

LM-16C1 is a light-colored to light-yellow liquid consisting of a mixture of hydrocarbon compounds. It is mainly intended for high-temperature use as a heat transfer medium, with a service range of 10°C to 340°C. It has a stable molecular structure, good thermal stability, and favorable vapor pressure, designed for closed-loop circulation systems. Its closed-cup flash point is 152°C.

The product features excellent high-temperature performance and a wide service temperature range, allowing the same heat transfer medium to be used in both heating and cooling systems within 10–340°C. It is virtually non-corrosive towards metals and has no adverse effects on operators.

LM-16C1 must be used on its own and not mixed with any other secondary refrigerant or heat transfer medium. The system should be cleaned thoroughly with no leaks before adding the product. It is for use in closed systems only, and moisture must be prevented from entering during use. It shall not be used to directly heat or cool oxidizing chemicals.

For first use, the product shall be inspected within 3 months after charging and commissioning, and thereafter at least once a year. Inspection items include appearance, closed-cup flash point, viscosity, and acid value.

As part of Glacier Coolant's 32 years of secondary refrigerant manufacturing expertise, the LM-16C1 series delivers a reliable, high-temperature heat transfer solution for demanding industrial applications.

Reference values: closed-cup flash 152 °C · viscosity 67.46→12.52 mm²/s (10→100 °C) · specific heat 1.92→2.14 kJ/kg·K