Applications and installations throughout Europe
Satisfied customers
Years of experience in the field
The Manti Ceramic Microcoat was created with the aim of solving the problems of traditional high-thickness thermal insulation systems. It can work synergistically with the high-thickness coat, guaranteeing the closure of thermal bridges and preventing the entry of summer heat and the escape of winter heat.
This product is suitable for indoor and outdoor thermal protection (both in winter and summer). The product is white for covering with a colour finish. The product is in paste form and should be applied using a trowel with a reinforcement mesh put in place after the first coat applied using a notched trowel.
This product is suitable for indoor and outdoor thermal protection (both in winter and summer). The product comes with a white base, which is in itself a decorative coating as it has a special surface. The product can be coloured with MANTI® CERAMIC pigments or with pigments made by third parties provided they are inorganic.
Transparent Low Density is a three-coat treatment based on nanoresin that has an insulating power equal to 4 cm of EPS or similar. It is an impregnating agent, without thickness, that penetrates the surface of the material on which it is applied (spray or roller application).
The waterproofing thermal protective coating is water-based, solvent-free, paint-like, thin-layer, stable coating containing ceramic microspheres with a vacuum inside them. It significantly reduces heat load, mainly due to its thermo-reflective capabilities.
Product for industrial applications
MANTI CERAMI MICROCOATING is a low-thickness thermal insulation. MANTI CERAMIC MICRO COATING is a thermal insulation with low thickness. Its main component is a mix of ceramic microspheres with variable grain size of a few microns (a micron is a thousandth of a millimetre, so hundreds are found in a millimetre). It uses high-quality ceramic microspheres, hollow inside, produced at high temperature to which a nonvolatile water-based binder is then added. Vacuum microspheres almost completely block heat flow, due to their thermal insulation capacity.
Conventional insulation materials do not block, but slow down heat flow . As a result, their insulating capacity depends on their thickness. Many insulating materials are not breathable, so their application results in condensation between the wall and the insulator, creating an environment that promotes the growth of fungi and mold. Instead, MANTI CERAMIC is highly breathable and certified anti-mold.
With regard to the thermal performance of the micro coating, it is worth noting that there are more than 10 mechanisms at work in this technology. To simplify, however, most of the product’s effectiveness lies in its ability to reflect thermal energy (THERMAL SHIELD) and in the intrinsic capacity of the ceramic microspheres to absorb and dissipate heat. The mechanism related to counteracting thermal conduction represents just a small part, no more than 10–15%..
Therefore, it is good to point out that the measurement of the performance of the product with instrumentation designed and built for thick coats is incorrect. For example, using a heat flow meter or a guarded hot plate does not allow for measuring the product’s performance because the product operates on different mechanisms of action that are not detectable with these tests. There are several factors involved in the effectiveness of the product:
Wall of the sphere resisting heat conduction
Reflection of the interior of the sphere
Surface reflection of spheres
Heat conduction resistance due to the vacuum inside the spheres
With regard to the thermal performance of the microcoating, it is worth noting that there are more than 10 mechanisms at work in this technology. To simplify, however, most of the product’s effectiveness lies in its ability to reflect thermal energy (THERMAL SHIELD) and in the intrinsic capacity of the ceramic microspheres to absorb and dissipate heat. The mechanism related to counteracting thermal conduction represents just a small part, no more than 10–15%..
Therefore, it is good to point out that the measurement of the performance of the product with instrumentation designed and built for thick coats is incorrect. For example, using a heat flow meter or a guarded hot plate does not allow for measuring the product’s performance because the product operates on different mechanisms of action that are not detectable with these tests. There are several factors involved in the effectiveness of the product:
Wall of the sphere resisting heat conduction
Reflection of the interior of the sphere
Surface reflection of spheres
Heat conduction resistance due to the vacuum inside the spheres
where installing the high-thickness insulation requires major construction work and is therefore forced to distort the original façade.
Closure of thermal bridges such as window and door eaves, terraces, and under eaves.
Interior insulation where the thickness would impair room size and force construction and electrical work.
Facades of historic buildings that cannot be altered due to the presence of raised friezes.
Industrial and agricultural warehouses, silos, etc. where it is necessary to thermally insulate and waterproof with a low thickness roofing and surfaces of different materials (metal, plastic, stone and others)
