SYSTEM FEATURES

Thermo-Reflective Shield Ultra-Thin Coating Micro Footprint Nanotech Elastomer-Formula Crack Resistant Vapour Permeability Mould Resistant Fungal/Algae Resistant Lichen Resistant Asbestos Free Sulphur Resistant Anti Corrosive High PH Acoustic Suppression No Thermal Bridges Superior Adhesion Bio-Degradable Breathable Non Toxic Non-Flammable A2 & B Class

B-THERMIQ® ULTRA-THIN THERMAL COATING

Thermal Regulator Protective Shield

B-THERMIQ® products create a thermal shield that reflects heat and radiation. This shield is formed by tiny vacuum microspheres that are in fact traps, tailored to the dimensions of the wavelength of infrared and ultraviolet radiation, acting like a labyrinth of mirrors.

The light beam, attempting to pass through the radiation, falls into such a trap while reflecting multiple times and in multiple directions, as a result is directed towards the entrance with almost no loss of energy.

Normally heat transfer takes place not only by conduction through partitions (walls, ceilings, etc.), but also by radiation. Thermal radiation, or infrared radiation is a fragment of electromagnetic radiation, of which an even smaller fragment is visible light radiation. B-THERMIQ® thermo-reflective coating is created by properly selected resins and reflective thermal regulating material, giving rise to polymer microspheres. Nano-Tech - Hollow microspheres of 5-40 μm in diameter - almost half the width of human hair strand.

Product Distinction

Key points: (Ultra-Thin Layer Reflective System) is introduced to the market under the B-THERMIQ® brand. Our system does not aim to compete with bulk insulants on thermal conductivity. Instead, it works on a uniquely different physical principle: reflection and emissivity management, rather than conduction resistance. This is why standard thermal conductivity testing is not a suitable way to assess performance however, solid performance indicators, mathematically equal to R-value measurements and often exceeding minimum gains, are readily available for evaluation.

Reflective systems require a different lens of evaluation: energy performance, surface temperature reduction, and comfort improvements - not conventional insulation metrics. In contrast, real-world solar irradiance in New Zealand is much more variable therefore (H1/VM1) modelling is used, not prescriptive tables i.e. (AS1).

H1/VM1 is a Verification Method for the New Zealand Building Code's H1 Energy Efficiency clause, used to demonstrate compliance for housing and small buildings. When an ‘annual delivered energy’ calculation of the proposed building is equal to or below the reference building, H1 is achieved.

“Confirmed TSR/SRI values contribute to H1 compliance only through the H1/VM1 thermal model: the verified reflectance numbers reduce solar absorption and surface temperature in the simulation, which lowers annual delivered energy and helps the proposed building meet the H1 performance target.”

*Important Clarification:
For our Thin Layer Reflective System, it is neither possible nor appropriate to apply traditional insulation parameters (e.g., thermal conductivity or λ-values, as used for polystyrene or mineral wool). Why? Because this technology simply works differently:

Instead of slowing heat transfer through the wall, it reflects heat energy away from the surface, preventing it from entering in the first place.

If you measure the λ-value of any reflective coating, it will appear similar to ordinary paint however, the evaluation method for reflective coatings has changed. Clarifying these methods and distinctions, especially when discussing with architects and engineers is critical, because reflective systems achieve energy savings in a completely different way because extremely low λ-values in this category simply do not exist in the world of traditional insulation.

Independent scientific research supports this distinction. For example:

Cooling and Reflective Coatings
Studies such as Santamouris (2012, Applied Energy) and the comprehensive review in MDPI Materials (2022, doi:10.3390/ma15165642) demonstrate that high-reflectance, high-emissivity coatings significantly reduce heat absorption, surface temperature, and cooling demand - with measured building energy savings ranging between 20–45%, depending on climate and application. Regarding the manufacturer data in Poland, B-THERMIQ® TSR coating (glass polymers and vacuum filled) can save up by 45%.

Real-World Performance
Recent field trials (ScienceDirect 2024, Energy Reports) show reflective thin-layer coatings can reduce indoor air temperature by several degrees Celsius and cut cooling energy use by double-digit percentages, particularly in hot climates and urban heat island conditions.

Advanced Materials Research
Work published in Advanced Functional Materials (2022, doi:10.1002/adfm.202201432) highlights new generations of radiative and reflective coatings, confirming that such systems contribute significantly to thermal management by reflecting solar radiation and enhancing emissivity.

In our own system:

>Total Solar Reflectance (TSR) is measured at 93%.

>Solar Reflectance Index (SRI) reaches 118%, exceeding conventional cool roof materials.

>Emissivity is high at 0.86, allowing surfaces to release absorbed heat effectively.

>R-5.7 m² x K/W | 0.5mm layer, 'mathematical' R-Value equivalence

How High-Emissivity Coatings Work:

Principle: High Emissivity coatings operate on the principle of thermal radiation, where a material's emissivity determines its ability to emit thermal energy. Materials with high emissivity values radiate heat at a significantly higher rate B-ThermIQ products have an emissivity value 0.86.
Energy transfer: By increasing the amount of heat radiated away from a surface, these coatings help dissipate heat and maintain stable temperatures in high-temperature environments.
Enhancement mechanisms: Emissivity can be enhanced by adjusting the coating's composition, creating multilayers, or modifying its surface morphology, such as by incorporating nanostructures that trap and radiate more thermal energy. The effect being improved combustion, energy savings, increased production efficiency, reduced downtime, extended substrate life, and overall more stable, efficient thermal performance.

The result is not “insulation” in the traditional sense, but a shield effect: up to 45% reduction in heating/cooling expenses by minimizing heat gain in summer and limiting heat loss in winter.

B-THERMIQ® System Key:

*TSR: Total Solar Reflectance = Accounts for the entire reflected solar spectrum, which includes infrared (IR) heat and visible light. (High % is better)
*SRI: Solar Reflectance Index = Indicates the ability of a materials capacity to return solar energy to the atmosphere, combine light & heat readings (High % is better)
*ε; Thermal Emissivity = Allows surfaces to release absorbed energy as heat effectively (0-100 - High is better)
*H1/VM1: When an ‘annual delivered energy’ calculation of the proposed building is equal to or below the reference building, H1 is achieved.
*R-Value: Mathematical Equivalent = Measures thermal resistance - slowing the cold or heat flow (High values are better)

Beyond energy savings, Thin Layer Reflective System also provides:

· Extended surface lifespan (reduced cracking, blistering, UV damage).

· Anti-fungal and anti-mould protection.

· Applications in construction, transport, industrial cooling/heating, agriculture, and petrochemical environments where temperature stability and safety are critical.

· Eco-friendly formulation with low VOC content, reducing carbon footprint.

ISO references, case results, and supporting documentation clearly validate the product’s performance.

Study (links):

Article: Thermo reflective coatings: a technical solution for sustainably reducing building energy costs

Proven Benefits

The Thin Layer Reflective System is designed for versatile applications across industries such as construction, industrial, and mechanical (cooling and heating systems). It can also be used in the agricultural sector due to its eco-friendly nature, as well as in the transportation industry to maintain stable temperatures during media transport.

Our system is based on ecological technology that provides energy savings of up to 45% in both winter heating and summer cooling expenses.

Heat-reflective coatings are an effective solution to keep homes and buildings comfortable. Below are the key benefits of using the Thin Layer Reflective System:

1. Cut Down on Energy Costs
With longer and hotter summers, households face rising costs of staying cool and comfortable. The Thin Layer Reflective System reduces heat absorbed by rooftops, which can significantly lower the demand for air conditioning and ultimately reduce electricity bills. This innovative coating also reduces traditional insulation loads, improving overall return on investment (ROI).

2. Enhanced Indoor Comfort
Urban areas often experience higher temperatures than surrounding regions due to human activity, concrete surfaces, and limited vegetation — the urban heat island (UHI) effect. Our reflective coatings mitigate UHI by reflecting heat, preventing overheating, and enabling better indoor temperature control.

3. Extended Surface Lifespan
Sunlight, UV rays, and heat can cause surface damage such as blistering and cracking. By reflecting solar radiation, our coatings reduce surface temperature and minimize damage, extending both lifespan and aesthetics. They also provide excellent microbial resistance, preventing mold, mildew, and bacteria growth. Additionally, the coatings enhance waterproofing and protect against water damage.

4. Thermal Management in Electrical Enclosures
Sensitive electrical equipment can overheat, leading to costly downtime and repairs. By reflecting solar radiation, our coatings lower enclosure temperatures, ensuring safer operation, reduced maintenance costs, and optimal performance.

5. Reduced Risk of Dangerous Reactions
In tanks and pipelines storing reactive chemicals, reflective coatings help maintain stable temperatures, preventing thermal runaway reactions and reducing the risk of explosions.

6. Improved Safety
On electrical enclosures, the system reduces overheating-related failures, increasing workplace safety. In petrochemical and hazardous chemical storage tanks, it lowers the likelihood of dangerous incidents such as leaks or explosions, safeguarding both personnel and the environment.

7. Lower Carbon Footprint
Our coatings are formulated using eco-friendly, low-VOC (volatile organic compound) materials. VOCs contribute to air pollution by evaporating at room temperature, while low-VOC coatings contain fewer harmful compounds, supporting sustainability.

Temperature Regulation

Traditional thermal regulation materials (expanded polystyrene, mineral wool, or foams) create thermal 'resistance only' to conduction. This resistance merely delays heat transfer, which will eventually pass through, and also prevents the wall from breathing properly. With less than 1 millimetre thickness, B-THERMIQ® products achieve results that surpass traditional performance parameters. Even in direct contact with other materials,

B-THERMIQ® non-conductive vacuum inside the microspheres prioritizes radiation.

Key Applications:

Industrial furnaces: Applied on refractory surfaces to boost radiant heat transfer and reduce fuel consumption.
Aerospace: Enables efficient heat dissipation for critical components.
Electronics: Improves thermal management and prevents overheating.
Energy conservation: Enhances efficiency in high-temperature industrial processes.
Durability: Long-term performance depends on proper surface prep and application quality.

*Customization: Some applications can be customized for specific requirements and industries, such as glass, steel, power generation, buildign applications and more.

B-THERMIQ® applications include geothermal pipelines, furnaces, buildings, tilt wall, panels, carrier vessels, farming, campers, space tech, acoustic suppression, pump stations, cooling towers, silos, concrete floors, skillion roofing, improving energy efficiency and thermal regulation.

B-THERMIQ® thermo-reflective shield is not the same as a 'traditional' insulator or an insulation coating. While all are designed to reduce heat flow, the B-THERMIQ® system significantly reduces radiant heat by reflecting it, whereas traditional insulation reduces convective and conductive heat by slowing the transfer of heat through materials.