Compact, high‑efficiency heat transfer with easy maintenance and future expandability
The 10TE Gasketed Plate Heat Exchanger delivers excellent thermal performance in a compact footprint. Designed for heating and cooling applications requiring high efficiency, low fluid volume, and service flexibility, it offers reliable operation with the ability to expand capacity as system needs evolve.
Gasketed plate heat exchangers are particularly well-suited for a wide range of applications: Heating of water (domestic, swimming pool...), Buffer on heat pump, Geothermal energy, Industrial processes...
Decoupling of the machines to the system
Cost efficient design
Qualified and reliable
High heat transfer coefficient
Close temperature approach
The 10TE is a passive heat transfer device with no internal control electronics.
Operation is governed by external system controls, such as pumps, valves, and temperature sensors.
Designed to integrate seamlessly into:
Chiller systems
Heat pump systems
District heating and cooling networks
Industrial process systems
Control logic is implemented at the plant or system level, not within the exchanger itself.
Heat transfer is controlled by:
Primary and secondary fluid flow rates
Inlet and outlet temperatures
Commonly used with:
Control valves
Variable‑speed pumps
Differential pressure controllers
Modular plate design allows capacity expansion without modifying the surrounding control architecture.
Gasketed construction supports:
Easy isolation
Inspection
Plate replacement
within controlled plant environments.
| Document Name | Description | Document Type | Language | Action |
|---|---|---|---|---|
| 10TE Brochure | English | Download |
It is suitable for heating, cooling, and industrial process applications requiring efficient and compact heat exchange.
It offers high efficiency, easy maintenance, and the ability to expand capacity, unlike brazed or welded exchangers.
Yes. Additional plates can be added to extend the heat transfer area as system demand increases.
Low fluid volume reduces system inertia, improves response time, and lowers pumping and operating costs.