KIGO COPPER was developed specifically to be used with metallic ceiling tiles with the goal of providing efficient ceiling-based heating and cooling. Its patented design includes a rectangular perforated copper sheet (either 390 mm or 590 mm width). Above the non-perforated sections, a 12 mm diameter copper tube has been laser welded into place. The welded contact between the tube and the sheet provides optimal heat transfer. The minimum space between tubes is 80 mm. This manufacturing and welding technology has been used for many years in the glassed solar panel industry.

The patented geometry of the sheet means it remains perfectly flat after welding.

The KIGO COPPER heat exchanger is then fitted over the full surface of the metal tile, usually equipped with an acoustic fleece.

Given the excellent thermal conductivity of copper and the activated surface area, a « thermal highway » is created above the metallic tile. The resistance to heat transfer is therefore only affected by the thickness of the metal tile and by the acoustic fleece.

This optimized union between the fluid (which circulates through the copper tube) and the metal tile produces exceptional heating and cooling power while preserving high acoustic performance.

This can be further improved with the use of sound absorbing material on the tile.

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The KIGO COPPER activation is compatible with “any and all” metallic tiles of width exceeding 400mm.

The maximum length that can be activated is 2500 mm.

The activation length is typically 160 mm shorter than the tile to allow for the hydraulic connections.

Independent ceiling sail

KIGO COPPER can be installed as an independent ceiling sail composed of large metal tiles. The centre zone is left free to allow for the installation of other equipment. This space is 200 mm for a ceiling sail of 1000 mm width. A metal frame is fixed to the slab setting the distance between the slab and the tile as well as an opening for technical access. In its basic installation, the ceiling sail has a minimum distance of 100 mm.

Integrating hygienic ventilation is also possible through an end cap box of 125 mm which is in general located in the technical corridor. A rectangular sheath delivers fresh air to the end of the ceiling sail. A grid then guarantees a good dynamic mixture with the local air, either in cooling or heating mode. The recirculation of the air is achieved through the use of another box above the ceiling sail (on the servicing side). This version requires a minimum spacing of 140 mm.


It is also possible to increase the thermal exchange with the slab to take advantage of its energy stocking capacities. Two specific rails are installed against the slab and the fluid at the end of the activation  

KIGO COPPER activates the slab (TABS).

Closed suspended ceiling

KIGO COPPER is available for all sorts of perforated metal tiles, whether Steel or Aluminum. The width must be a minimum of 400 mm. Depending on the details of each installation, it may be necessary to reduce the activation surface to allow for cutting or integration of additional components. The hydraulic inlets and outlets of the panels are connected together to form groups. For this quick connect couplings are used.

Acoustic performance
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The acoustic performance of the activated tile is improved in lower frequencies.

The performance is still quite good for higher frequencies, specifically with added acoustic material.

This graph indicates the characteristics for a steel tile of 0.7 mm thickness with perforation of Ø 1.0 mm over 20%.


Independent ceiling sail

Unlike closed ceiling systems, it is unwise to use absorption values for ceiling sails. Thanks to the additional absorbent surface on the back of the panel, the ceiling sail provides on paper excellent acoustic results (for example, aw = 1.6), which are not very useful for calculations. In addition, the diffraction of the edges and the circumference / surface area ratio of the ceiling sail also have a certain influence (which is not directly determinable). Therefor ceiling sails have better acoustic absorption than closed ceilings.

Hence, for ceiling sails it is preferable to use equivalent surface absorption values instead of absorption coefficients; this suggests that you can determine how many m2 of ceiling is replaced by the ceiling sail to obtain the same acoustic result.

Complete suspended ceiling

In the case of complete ceilings, the acoustic performance values supplied by tile manufacturers are typically sufficient indication.

Hydraulic connections

The ends of Ø12mm of an activated KIGO COPPER tube are welded and slightly inclined to up in order to assist in completing the connection.

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Female quick connect coupling of Ø12mm are simply joined to the tube.

These can be delivered either straight or with a 90° angle.

The connection between panels and distribution pipes is achieved through flexible connectors with quick connect couplings.

The quick connect coupling includes:


1. Brass body

2. Two O-rings which ensure waterproofness

3. A retaining ring of 15 mm diameter.

4. A sliding ring which permits dismantling the connector

5. A removable locking clip which prevents unintentional disconnection of the coupling.

Power Losses

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In order to guarantee optimal heat exchange, the flow must be sufficiently high to ensure turbulence (Reynolds number of at least 2000).

In addition, to avoid flow noise, the flow speed must not exceed 0.5 m/s.

The table below indicates the total pressure drop (including flexible connectors) for different metallic tile length.