Last updated: 24 Nov 2025 | 11 Views |
Set to 25°C, So Why Is It Still Hot Inside? | A Sustainable Solution and Business Opportunity for Building Material Manufacturers
"The AC is set to 25°C, but the room still feels warm. Why?"
This question, frequently asked by end-users, isn't just about comfort. It's a signal pointing to a significant, untapped gap in the building materials market—one that awaits visionary manufacturers to fill.
When your customers face soaring electricity bills and persistent heat buildup in their buildings, the root cause often lies directly with the "materials" used in construction. This is your opportunity to transform your products from being "part of the problem" to becoming "the core of the solution."
The Deep Dive: When Your Product Unintentionally Becomes a Heat Conductor
In physics, conventional building materials like concrete, ceramic tiles, and even standard paint films act as excellent conductors of heat. When a building's exterior surface absorbs solar radiation, its temperature can soar to 65-75°C. This immense thermal energy is then transferred through the dense molecular structure of the materials, accumulating inside.
The result? Walls and ceilings become massive hot plates, constantly radiating heat and forcing air conditioning systems to work overtime to combat the relentless heat influx. This is the real reason why homes fail to stay cool and energy costs escalate.
The Solution: Not Just Reflection, But a Revolution Within the Material's Core
While the current market offers "heat-reflective paints," these are surface-level solutions with limitations. Today, a more advanced technology is available that can be integrated directly into your production line: Antiar's Nano-Structured Thermal Insulation Innovation.
Antiar's innovation is not a finished product; it is a Core Technology that integrates seamlessly with your existing products to fundamentally change their properties from the inside out.
Nano-Porous Structure Insulation: This technology creates millions of nano-scale pores within the matrix of your material. It transforms a dense, heat-conductive structure into one that is lightweight and filled with nano-sized air pockets, acting as an invisible "thermal shield" embedded within the material itself. This structure effectively blocks and slows the transfer of heat.
Fire-Resistant & Non-Flammable Properties: Composed primarily of inorganic materials, your enhanced product naturally becomes a fire barrier. It is non-combustible and does not contribute to the spread of flames, adding a critical safety value that major construction projects are actively seeking.
How to Transform Your Product into a Solution for Overheated Buildings
By integrating Antiar technology, your materials will offer a completely different experience for the end-user:

The Business Opportunity for You
Adopting Antiar technology is your strategic move from a Red Ocean of commodities to a Blue Ocean of solutions.
It's time to shift your role from a manufacturer of building materials to a creator of innovative solutions for a better quality of life and sustainable energy consumption.

Ready to Differentiate and Lead the Market?
The expert team at Antiar is ready to provide in-depth consultation on integrating our technology into your production line. Let's co-create the products of the future.
For inquiries about our innovation and business solutions, please contact us:
Phone: +6684-751-6529
Email: sales@antiar.com
Frequently Asked Questions (FAQ)
Q1: Why does my house still feel hot even with the air conditioner on? A: Because most standard building materials absorb and transfer heat from the outside in. Even with the AC running, your walls and ceiling are constantly radiating that stored heat back into the room, preventing it from cooling down effectively.
Q2: How is "in-material insulation" different from heat-reflective paint?
A: Heat-reflective paint works on the "surface" to reflect solar radiation away. Antiar's nano-structured insulation works deep within the "core of the material" itself, creating millions of tiny air pockets that block heat from passing through. This provides a more comprehensive, durable, and effective thermal barrier, with the added benefit of being inherently fire-resistant.
Q3: How do heat-resistant building materials help save on electricity bills?
A: Materials with built-in insulation significantly reduce a building's total "heat load." When less external heat penetrates the building, the air conditioning (HVAC) system doesn't have to work as hard. The compressor runs less often, leading directly to tangible energy savings and lower electricity costs.
Q4: How does Antiar's technology work?
A: Antiar technology embeds a nano-porous structure throughout the material, which acts as an internal thermal insulator. It slows down the transfer of heat, preventing walls from accumulating and radiating heat into the room like conventional materials do.
Q5: What are the benefits for a building material manufacturer who adopts this technology?
A: Manufacturers can elevate their products from basic commodities to high-value "solution products." This allows them to create a premium brand line, increase profit margins, and penetrate lucrative project markets like Green Buildings, hospitals, and hotels that demand high-performance materials for both energy efficiency and safety (fire-resistance).
Q6: Does this technology truly help save energy?
A: Yes. By preventing materials from accumulating heat, the building's interior stays cooler naturally. This reduces the strain on air conditioning systems, allowing them to operate more efficiently and consume less energy.