i-GlooKlima
iGK2 · Patented nanotechnology

Eliminate Thermal Bridges

The #1 European solution against thermal bridges. A nanotechnology skim coat that goes on like plaster and stops heat loss where traditional insulation fails.

Theory & regulation

What thermal bridges are

Thermal bridges are one of the most complex topics in assessing a building's energy performance. Poor design or execution of construction details causes harmful effects both on comfort — mold and surface condensation — and on economics, with a sharp rise in energy consumption.

A thermal bridge influences an area of at least 3 times the element thickness, and never less than 1 meter (UNI EN ISO 14683).

“Part of the building envelope where the thermal resistance, elsewhere uniform, changes significantly due to penetration of materials with different conductivity, a change in thickness, or a difference between inner and outer dispersing surfaces.”

UNI EN ISO 10211

The problem

Where thermal bridges hide

Every geometric or material discontinuity in the envelope becomes a weak point: heat flow concentrates, the surface temperature drops and condensation and mold appear. These are the critical nodes classified by UNI EN ISO 14683.

Isometric diagram of a building with thermal bridges highlighted in red on balconies, windows, pillars, roof junctions, corners, floor edges and internal walls
  • R

    Roof junctions

    Connection between the roof slab and the vertical wall.

  • C

    Corners

    Intersection of two vertical walls, outward or inward.

  • F

    Floor edges

    Connection of bases and walls facing outside or unheated spaces.

  • IW

    Internal walls

    Junction between an inner partition and the outer wall.

  • P

    Pillars

    A pillar interrupting the continuity of the insulating layer.

  • B

    Balconies

    A horizontal element linking indoor and outdoor spaces.

  • W

    Windows

    Frame, sill and shutter box interrupting the insulation.

All the weak points in the building envelope

21-23%

Heat loss

80%

Mold above 80% humidity

Surface condensation

Failed energy compliance

The solution — iGK2 nanotechnology

One of the lowest thermal conductivities in the industry

λD = 0,0019W/mK

one of the lowest thermal conductivities on the market

Applied thickness:just 2-10 mm
  • Restores thermal continuity across every critical node
  • No bulk: solves thermal bridges without rebuilding the envelope
  • Corrects from the inside, even where external insulation cannot reach
Isometric diagram of the building treated with iGK2, with green checkmarks on each corrected node and a 2-10 mm thickness

Proven performance

Reduction in thermal transmittance

-87%

Pillars

-77%

Roller shutter box

-73%

Balconies

-65%

Corner walls

Reduction in thermal transmittance (finite element simulation)

Application — 6 steps

As simple as a skim coat

1

Prepare

Clean and prepare the surface.

2

Mix

Shake and homogenize iGK2.

3

1st Coat

Lay the first coat.

4

Mesh

Embed the fiberglass mesh.

5

2nd Coat

Apply the second coat.

6

Finish

Smooth to a clean finish.

Apply it like a skim coat with a standard toothed trowel: no panels, no anchors, no demolition. If you can plaster, you can apply iGK2.

Internal + external walls

One product. Every wall.

Suitable for any surface, residential or commercial, indoors and out.

Breathable
Mold-resistant
Fire-rated Euro Class B-s2,d0
Zero VOC
100% recyclable
ISO 14021:2016
Zero VOC
100% Recyclable
Class B-s2,d0
4.5 kg CO₂/m²

Got a thermal bridge to solve?

Our technicians analyze the critical node and propose the iGK2 correction, with a detailed quote and no obligation.

Request a consultation