INNOCHILL · Technology

Low-Conductivity Technology

Electrical conductivity, ion control and lifecycle behavior.

Thermal Fluids

Low-conductivity coolant technology addresses thermal systems where electrical behavior is part of the fluid qualification—not merely a secondary specification.

Quick AnswerElectrical conductivity is commonly expressed in µS/cm and indicates how readily the fluid carries electrical current. The relevant target depends on the application, fluid chemistry, materials, temperature, contamination level and service life.

Why conductivity changes

01

Ionic contamination

Water quality, process residue, handling and foreign substances can introduce conductive ions.

02

Corrosion interaction

Metal ions and corrosion products can alter conductivity during service.

03

Additive chemistry

Corrosion inhibitors and formulation components influence the starting conductivity and its stability.

04

System materials

Hoses, seals, metals and plastics may interact with the fluid over time.

Application context matters

ApplicationElectrical focusOther key criteria
EV / BEVLow or ultra-low conductivity depending on architectureCorrosion, aluminum, elastomers, freeze protection
Fuel CellVery low conductivity may be requiredPurity, corrosion, material compatibility
Data Center D2C / CDUConductivity management and contamination controlThermal performance, metals, filtration
Conventional coolingElectrical property often secondaryFreeze/boil protection and corrosion

Initial value is not enough

A new-fluid conductivity result is only the baseline. A robust engineering program should define the sampling condition, measurement temperature, allowable service range, contamination controls and replacement threshold where applicable.

Low-conductivity product platforms

Related product platforms

Low-conductivity requirements vary by architecture. Review the related INNOCHILL models together with the actual electrical, materials and temperature requirements.