Fluidify™ is optimized for rapid fluid temperature control. Ideal for performance or durability testing of coolant components. This module contains a single robust refrigeration circuit, engineered for prolonged use between extremes.
The convenient roll-around architecture allows for easy plug-and-play testing of batteries, heat exchangers, valves or entire thermal management subsystems.
Automotive temperatures.
-40°C to +130°C (coolant)
Rapid rate of change.
Up to 13°C/min (average).
Meets test standards.
Including ISO 16750, IEC 60034, IEC 60068 and SAE J3062.
Fluidify™ is one product that handles air and fluid temperature conditioning, measurement, and control. It reduces risk by offering quick delivery by one vendor, freeing up internal resources, budget and floor space.
Compared to traditional refrigeration solutions, Fluidify™ combined with Horai™ technology is able to achieve greater cooling power in a smaller footprint.
MECHANICAL WATER PUMPS
For automotive engines
HEAT EXCHANGERS
Radiators and oil coolers
THERMAL MANAGEMENT
Battery, motor, inverter for hybrid/electric vehicles
ELEC. COOLANT PUMPS
Engine, transmission, heat pumps
SOLENOID VALVES
Electromechanical coolant valves
COOLANT EXPANSION TANKS
… and more
Test Engineering and Validation | Medical Device Manufacturing | Accredited ISO 17025 Calibration Laboratory
A platform of pre-defined modules that allows you to put together a test system like building blocks so you are able to begin testing faster than any custom-engineered option. We call it Section ID™. Answer a few questions about your component, the parameters and the test application; now your test system is defined and ready for order.
Section ID™ delivers a test system 2-3 times quicker than the alternative.
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Get ready, because this post is going to get hot…and cold. Testing components at super low/high temperatures have become a standard request now from OEMs. Whether it is a static test (i.e. performance tests at specific temperature operating points) or a dynamic test (durability tests that entail operating the component continuously across a range of temperatures), you will need to source a piece of equipment that will help you achieve these requirements. Today, we are going to discuss different solutions, how they might integrate with each other, and some of the pros/cons of each.
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